berg in a while instructed him that he didn't intend for the join with abstract to be positioned on a vastly categorized server.
The call - which the United States president has denied any knowledge of - allegedly happened the day after the now-famous Trump-Zelensky phone call.
In the orthopedic sector and more broadly in medicine, additive manufacturing has become an essential technology. Whether for the production of prostheses, orthoses or implants, 3D printing allows medical devices to be manufactured in a short period of time and at a reduced cost. However, for the creation of custom orthopedic footwear, additive manufacturing has had its faire share of limitations until now. Traditional orthopedic shoes are made of wood and 3D printed shoes were not of similar quality. To overcome this problem, American company PROTIQ has developed a new solution.
In collaboration with orthopedic experts, PROTIQ has developed a material that can be used for 3D printing orthopedic shoes. The material in question is a TPU polymer, which the additive manufacturing company says offers the same properties as wood, while being elastic and extremely lightweight. Thanks to these characteristics, PROTIQ’s TPU can be seen as a viable alternative to wood. To print its TPU, the company uses selective laser sintering technology, which though similar to many metal powder-based methods like laser-powder bed fusion uses polymer powders.
According to PROTIQ, they used SLS rather than a technology like Fused Deposition Modeling (FDM), because it allows for much greater precision and technique. Additionally, thanks to this, the shoe lasts can be glue, polished and stapled in the same way as their wooden counterparts. Thus making it easier for shoemakers to make the switch. PROTIQ holds that their solution not only saves time but also meets the high demands of professional shoemaking.
To provide orthopedists and shoe manufacturers with software for designing 3D models, PROTIQ has enlisted the services of long-time partner Trinckle. With the software, professionals can model the shape of their patients’ feet. To do this, on Trinckle’s platform it is possible to upload foot scans, model them to obtain the desired shape, but also to measure the models. Also, the software is free to avoid orthopedists having to purchase expensive 3D modeling software.
Finally, because of its ability to retain the 3D models made, it is possible to create customer accounts and retrieve the models months or years later. This is not the first time that 3D printing has come to the aid of the orthopedic sector. In recent years, there have been a number of initiatives, such as the German company Plus Medica OT, which uses additive manufacturing to create custom orthotics for its patients. And over time, this type of application may well become the norm. You can learn more on PROTIQ’s website HERE.
What do you think of the solution developed by PROTIQ? Let us know in a comment below or on our Facebook, Twitter and LinkedIn pages! Sign up for our free weekly Newsletter here, the latest 3D printing news straight to your inbox!
Setting boundaries/friend refuses to listen to them

Hey y'all, I'll try to keep this short, I'm just kind of a mess right now.

I have a friend, who is my ex, who refuses to respect boundaries because he ways it is "censoring" him.  In particular, I have asked him to keep his political opinions to himself.  

He cannot.   He kept messaging me and tbh, it reminded me so much of my abusers.  It feels like my friend is gaslighting me tbh.  

It's difficult to deal with, because he often paints me as "overly sensitive" which makes me wonder if I am.  I do have an official PTSD diagnosis, along with a few other mental illnesses.  So maybe I am? But I also don't think that necessarily gives him the right to walk all over my boundaries. :/

Unfortunately, I own a house with him (my current partner and I have been living here for a while, but my ex's name is on the mortgage).  So I cannot cut him out of my life entirely.

Any advice? Also thanks for reading.This is a 2 year online program designed for those who are doing clinical practice. It is designed for people who are doing family medicine or general practice and want to enhance their practice. It consists of 4 semesters.
“Fighting Diabetes” is the Certificate Course for Family Physicians for Diabetes Management offered by the College of Family Medicine Pakistan (CFMP). This is a 06 months certificate course and accredited for CME hours by PMDC.&gt;"far above" rather than "far below", depending on what you're looking for.

Not really. I understand Rust's developers prioritize some features and I trust their judgment, but pretending it's a bonus is silly. 

&gt;and to make APIs easier to use and more stable

Works fine in Haskell.

&gt;reduce the likelihood of type inference taking forever, since the scope is limited

I don't know the specifics, so I can't comment beyond "it works fine in the functional languages I've tried." I can see it being different for Rust due to function blocks being longer though.Avocado Recipe
Monday, April 26, 2010
Unexpectedly i got some avocados today..courtesy of
my kind classmate who got it from their backyard tree..
So how do you eat your avocado? In the Philippines we do
it this way!
Caution: I'm not a kitchen expert!
Steps
(use riped avocados)
1. Cut the avocado into half.
2. Put all the fruit except the seed and the skin in a medium size bowl.
3. With a spoon smash the fruit in the bowl.
4. When totally smashed add in some sugar and mix thoroughly.
(adjust the sweetness according to your preference)
5. After mixing add in some milk(the more milk the better it will taste) then mix it again.
6. You can also make a Avocado Smoothie <---recipe there
6. You can also make a Avocado Smoothie <---recipe there
Done..easy right
You can now eat it like that OR
You can put it in your ref and come back for it after few hours
it will taste good both ways..but i prefer the cool one..
TRY IT..it taste really good! promise!
1 comments:
Very intetresting...I have never heard of using avocados like that. Next time we get avocado I am trying it.Fluorescence microscopy is one of the most powerful and widely used imaging techniques in neuroscience research because it can visualize the dynamic processes inside living cells with extremely high sensitivity and specificity. A series of technological developments have jointly promoted the advantages of modern fluorescence microscopy, including laser and detector technology, fluorescent probes, and molecular biology, making it more and more possible to study brain functions at the single-cell level.
In neuroscience research, fluorescence imaging was used to track dynamic processes to understand the neuronal activity, such as action potentials, calcium changes, or neurotransmitter release in vivo and in vitro. Current fluorescence imaging tools, such as fluorescent false neurotransmitters (FFNs), quantum dots (QDs), ligand sensors, genetically encoded Ca2+, and voltage indicators, have been widely used in the study of neuronal processes. Fluorescence-based imaging tools can be divided into two categories: genetically encoded fluorescent biosensors that target fluorescent proteins to specific cells, and non-genetic encoded fluorescent biosensors that include synthetic chemical probes and ligand-directed chemistry. These tools demonstrated the power of fluorescence imaging to advance our understanding of the functional processes of the brain. Below we introduced several applications of high-resolution microscopy combined with fluorescence technology.
Two-photon excitation (2PE) laser scanning microscope allows high-resolution and high-sensitivity fluorescence stimulation in intact nerve tissue. The 2PE microscope was first applied to neurobiology, using its high resolution in scattering tissue to perform fluorescence imaging of the structure and function of the dendritic spine in brain slices. Recently, 2PE was used to study the dendritic excitation of the intact neocortex and olfactory bulb and to imaging neuronal populations. It resolved the long-standing controversy about the structural plasticity of the adult brain on many spatial scales and may reveal the cellular correlation between learning and memory.
The super-resolution technology effectively breaks the classic diffraction limit by developing the strong nonlinearity between the excitation light and the emitted fluorescence and achieves a spatial resolution of up to a few nanometers in biological specimens. In the study of nervous system development, super-resolution fluorescence microscopy can non-invasively monitor the nano-level dynamics of the synapses of living neurons for a long period of time (> hours). The organization of organelles and proteins in the subsynaptic region has been studied by stochastic optical reconstruction microscope (STORM), and single-molecule-based super-resolution imaging.
XRF mapping has visual tissue properties and is used to describe the neuronal organization in neurodegeneration, especially in Parkinson's disease (PD). The role of Fe, Cu, Zn, and Mn element distribution in oxide regulation or signal activation is still unclear, XRF mapping shows that after calcium activation, nerve cells redistribute a large amount of copper from the cell body to the periphery, and zinc was the element with the largest difference in intracellular and extracellular concentration.
Fluorescence microscopy technology provides a way to visualize neural activity and neuronal communication. The use of this powerful fluorescence imaging technique in neuroscience provides an opportunity for measurements with high spatial and temporal resolution. Future research can realize multi-channel fluorescence detection to deep