mhurhangee/ep-ind-claims huggingface dataset:
A method for the additive manufacturing of a three-dimensional object out of a high-temperature polymer material, the method comprising the steps of - plasticizing a high-temperature polymer material above the melting temperature (T S) of the high-temperature polymer material, such that a melt of the high-temperature polymer material is generated, - cooling the plasticized high-temperature polymer material to a processing temperature (Tv), which is above a crystallization temperature (T K) of the high-temperature polymer material and below the melting temperature (Ts) of the high-temperature polymer material, and which is below a permissible maximum temperature value (T L) of means for additively manufacturing the three-dimensional object of a device for additively manufacturing the three-dimensional object out of the high-temperature polymer material, - conveying the melt of the high-temperature polymer material cooled to the processing temperature (T V) into the means for additively manufacturing the three-dimensional object, and - additively manufacturing the three-dimensional object out of the plasticized high-temperature polymer material cooled to the processing temperature using the means for additively manufacturing the three-dimensional object. - plasticizing a high-temperature polymer material above the melting temperature (T S) of the high-temperature polymer material, such that a melt of the high-temperature polymer material is generated, - cooling the plasticized high-temperature polymer material to a processing temperature (Tv), which is above a crystallization temperature (T K) of the high-temperature polymer material and below the melting temperature (Ts) of the high-temperature polymer material, and which is below a permissible maximum temperature value (T L) of means for additively manufacturing the three-dimensional object of a device for additively manufacturing the three-dimensional object out of the high-temperature polymer material, - conveying the melt of the high-temperature polymer material cooled to the processing temperature (T V) into the means for additively manufacturing the three-dimensional object, and - additively manufacturing the three-dimensional object out of the plasticized high-temperature polymer material cooled to the processing temperature using the means for additively manufacturing the three-dimensional object.
A fluid-cooled electronic assembly comprising: an electronic device having a plurality of microchannels shaped to receive a cooling fluid flow therethrough; a base including a fluid inlet and a fluid outlet, wherein the electronic device is mounted on said base between the fluid inlet and the fluid outlet; a cap attached to said base to form a fluid containment chamber therebetween, wherein said fluid containment chamber is in fluid communication with said fluid inlet and said fluid outlet and is shaped to receive the electronic device therein, and wherein said cap is shaped to direct a fluid flow from said fluid inlet to said microchannels of the electronic device; and a baffle material (452 and 550) disposed within said fluid containment chamber between said cap and said electronic device, said baffle material (452 and 550) being positioned to direct said fluid flow through said microchannels; characterized in that said baffle material (452 and 550) is in a contracted condition when not exposed to said fluid flow and in an expanded condition when exposed to said fluid flow. an electronic device having a plurality of microchannels shaped to receive a cooling fluid flow therethrough; a base including a fluid inlet and a fluid outlet, wherein the electronic device is mounted on said base between the fluid inlet and the fluid outlet; a cap attached to said base to form a fluid containment chamber therebetween, wherein said fluid containment chamber is in fluid communication with said fluid inlet and said fluid outlet and is shaped to receive the electronic device therein, and wherein said cap is shaped to direct a fluid flow from said fluid inlet to said microchannels of the electronic device; and a baffle material (452 and 550) disposed within said fluid containment chamber between said cap and said electronic device, said baffle material (452 and 550) being positioned to direct said fluid flow through said microchannels; characterized in that said baffle material (452 and 550) is in a contracted condition when not exposed to said fluid flow and in an expanded condition when exposed to said fluid flow.
A double-stranded ribonucleic acid (dsRNA) for inhibiting expression of complement factor B in a cell, wherein said dsRNA comprises a sense strand and an antisense strand, the antisense strand comprising a region of complementarity which comprises 19 to 23 nucleotides from the antisense sequence of (a) SEQ ID NO: 72 or 74; or (b) SEQ ID NO: 164 or 166, wherein each strand is 19 to 25 nucleotides in length. (a) SEQ ID NO: 72 or 74; or (b) SEQ ID NO: 164 or 166,
A method (800, 820) for compression of video information, comprising the steps of: - projecting points of a next image to projected points in a three-dimensional space using camera parameters of the next image and a depth map of the next image, wherein the depth map is derived from a depth map residing in a memory of a display controller of a computer, - projecting the projected points from the three-dimensional space to a reference image surface using camera parameters of the reference image, thereby obtaining motion vectors for estimating changes between the next image and the reference image, - estimating the accuracy of obtained motion vectors by comparing the depth value of a point projected to the three-dimensional space to the depth map value in the point projected to the surface of the reference image, and - selectively using the obtained motion vectors as such as image compression motion vectors or using the obtained motion vectors as initial values for image compression motion vector search, depending on the estimated accuracy of the obtained motion vectors. - projecting points of a next image to projected points in a three-dimensional space using camera parameters of the next image and a depth map of the next image, wherein the depth map is derived from a depth map residing in a memory of a display controller of a computer, - projecting the projected points from the three-dimensional space to a reference image surface using camera parameters of the reference image, thereby obtaining motion vectors for estimating changes between the next image and the reference image, - estimating the accuracy of obtained motion vectors by comparing the depth value of a point projected to the three-dimensional space to the depth map value in the point projected to the surface of the reference image, and - selectively using the obtained motion vectors as such as image compression motion vectors or using the obtained motion vectors as initial values for image compression motion vector search, depending on the estimated accuracy of the obtained motion vectors.
A medical device, comprising: a catheter that includes a first cylindrical member that defines a first lumen, the first cylindrical member having a proximal and a distal end, the catheter dimensioned to deliver fluid from a fluid source at the proximal end through the first lumen and into the void of a metal balloon at the distal end, and a second cylindrical member that defines a second lumen that is dimensioned to allow for the passage of a guidance member, or guide wire and, wherein the wall of the catheter is reinforced with a coiled or braided wire comprising stainless steel, nitinol, or combinations thereof; a compressed, metal balloon with a proximal neck and a distal neck, detachably engaged to the catheter, wherein the metal balloon comprises a single lobe, having a metal wall with an interior surface defining a void, and an exterior surface, with an opening in the wall that allows for the passage of fluid from the first lumen into the void, wherein the void of the metal balloon and the first lumen of the catheter are fluidly connected, and wherein the passage of fluid from the catheter directly into the void of the compressed metal balloon results in expansion of the metal balloon; characterized in that the metal wall of the metal balloon is solid. a catheter that includes a first cylindrical member that defines a first lumen, the first cylindrical member having a proximal and a distal end, the catheter dimensioned to deliver fluid from a fluid source at the proximal end through the first lumen and into the void of a metal balloon at the distal end, and a second cylindrical member that defines a second lumen that is dimensioned to allow for the passage of a guidance member, or guide wire and, wherein the wall of the catheter is reinforced with a coiled or braided wire comprising stainless steel, nitinol, or combinations thereof; a compressed, metal balloon with a proximal neck and a distal neck, detachably engaged to the catheter, wherein the metal balloon comprises a single lobe, having a metal wall with an interior surface defining a void, and an exterior surface, with an opening in the wall that allows for the passage of fluid from the first lumen into the void, wherein the void of the metal balloon and the first lumen of the catheter are fluidly connected, and wherein the passage of fluid from the catheter directly into the void of the compressed metal balloon results in expansion of the metal balloon; characterized in that the metal wall of the metal balloon is solid.
A method for producing an isolated population of mammalian tumor stem cells enriched in cancer stem cells (CSCs) or tumor-propagating cells (TPCs) comprising the steps of: a. obtaining a population of cells provided from a tissue sample, wherein the tissue sample is a brain tumor sample; b. separating cells that express EphA2 by cell sorting, according to their EphA2 expression level, from the population of cells of step a, wherein an EphA2high fraction of the population of cells displays a higher tumor-propagating ability than an EphA2low fraction of the population of cells; and c. selecting the cells of the EphA2high fraction separated in step b., thereby producing a population of mammalian tumor stem cells enriched in cancer stem cells or tumor-propagating cells (TPCs). a. obtaining a population of cells provided from a tissue sample, wherein the tissue sample is a brain tumor sample; b. separating cells that express EphA2 by cell sorting, according to their EphA2 expression level, from the population of cells of step a, wherein an EphA2high fraction of the population of cells displays a higher tumor-propagating ability than an EphA2low fraction of the population of cells; and c. selecting the cells of the EphA2high fraction separated in step b.,
Cyclosporine A having the structure in crystalline form 2, wherein said crystalline form has an X-ray powder diffraction pattern with major peaks at about (2 θ) 7.5, 8.8, 10.2, 11.3, 12.7, 13.8, 14.5, 15.6 and 17.5.
A method, executed in the virtual machine layer of a host supporting virtual machine connected to a network in a production environment, for determining the compliance of a virtual machine image which can be checked by running on the virtual machine at least one compliance program analysing and attempting to fix virtual machines before introducing the virtual machine image into a network, the method comprising: - identifying one or more virtual machine images; - controlling each one or more virtual machine image such that it cannot connect to the network; - for each of one or more virtual machine images, running the following automation APIs: - powering on the virtual machine from the virtual machine image; - logging into the virtual machine; - copying the at least one compliance program in the virtual machine; - executing the at least one compliance program inside the virtual machine and extracting compliance results; - powering off the virtual machine; - introducing each of one or more virtual machine images to the network if the problems according to the compliance results are fixed. - identifying one or more virtual machine images; - controlling each one or more virtual machine image such that it cannot connect to the network; - for each of one or more virtual machine images, running the following automation APIs: - powering on the virtual machine from the virtual machine image; - logging into the virtual machine; - copying the at least one compliance program in the virtual machine; - executing the at least one compliance program inside the virtual machine and extracting compliance results; - powering off the virtual machine; - powering on the virtual machine from the virtual machine image; - logging into the virtual machine; - copying the at least one compliance program in the virtual machine; - executing the at least one compliance program inside the virtual machine and extracting compliance results; - powering off the virtual machine; - introducing each of one or more virtual machine images to the network if the problems according to the compliance results are fixed.
A system (10; 710) for providing vascular access in a patient's body, comprising: a vascular graft comprising a tubular body having a proximal end and a distal end; and at least one valve (310; 610) configured to be attached to the distal end of the graft's tubular body, the valve (310; 610) comprising a housing (311; 616), the housing (311; 616) including a flexible membrane (314; 611) having at least one of a passage (316, 317; 612, 613) extending through the membrane (314; 611) and a weakened area to allow a medical device, preferably a catheter, to be inserted through the membrane (314; 611) into said vascular graft, the valve (310; 610) further comprising an introducer sheath (315; 615) configured to be inserted into the distal end of the graft's tubular body, wherein the graft is predetermined to be sutured to a vessel in a patient's body at the proximal end of its tubular body. a vascular graft comprising a tubular body having a proximal end and a distal end; and at least one valve (310; 610) configured to be attached to the distal end of the graft's tubular body, the valve (310; 610) comprising a housing (311; 616), the housing (311; 616) including a flexible membrane (314; 611) having at least one of a passage (316, 317; 612, 613) extending through the membrane (314; 611) and a weakened area to allow a medical device, preferably a catheter, to be inserted through the membrane (314; 611) into said vascular graft, the valve (310; 610) further comprising an introducer sheath (315; 615) configured to be inserted into the distal end of the graft's tubular body, wherein the graft is predetermined to be sutured to a vessel in a patient's body at the proximal end of its tubular body.
An athletic garment (110, 1300) worn by a wearer during an athletic activity, the garment comprising: a first zone (820, 830, 1320, 1330, 1340, 1350, 1370) having a first applied texture (200, 300, 400, 500, 600) having a first property that gives rise to a first aerodynamic characteristic, the first zone (820, 830, 1320, 1330, 1340, 1350, 1370) covering the arm and leg portions of the garment (110, 1300); a second zone (810, 1360) having a second applied texture (200, 300, 400, 500, 600) having a second property that gives rise to a second aerodynamic characteristic, the second zone (810, 1360) substantially covering the torso portion of the garment (110, 1300); and wherein the second zone (810, 1360) has little or no added surface roughness the athletic garment being characterized in that the surface roughness on the first zone (820, 830, 1320, 1330, 1340, 1350, 1370) smoothly transitions from little or none adjacent to the second zone (810, 1360) to gradually increasing surface roughness toward the respective distal ends of the first zone (820, 830, 1320, 1330, 1340, 1350, 1370). a first zone (820, 830, 1320, 1330, 1340, 1350, 1370) having a first applied texture (200, 300, 400, 500, 600) having a first property that gives rise to a first aerodynamic characteristic, the first zone (820, 830, 1320, 1330, 1340, 1350, 1370) covering the arm and leg portions of the garment (110, 1300); a second zone (810, 1360) having a second applied texture (200, 300, 400, 500, 600) having a second property that gives rise to a second aerodynamic characteristic, the second zone (810, 1360) substantially covering the torso portion of the garment (110, 1300); and wherein the second zone (810, 1360) has little or no added surface roughness the athletic garment being characterized in that the surface roughness on the first zone (820, 830, 1320, 1330, 1340, 1350, 1370) smoothly transitions from little or none adjacent to the second zone (810, 1360) to gradually increasing surface roughness toward the respective distal ends of the first zone (820, 830, 1320, 1330, 1340, 1350, 1370).
A battery pack comprising: cells each including a battery main body in which a power generation element is received within an outer member, and electrode tabs including a positive electrode tab and a negative electrode tab which are connected with the power generation element, and which are provided to protrude from end portions of the outer member; frame members each including a front surface and a back surface on which the pair of the cells are mounted; conductive members each of which is disposed on an electrode tab connection portion of the frame member, each of which includes connection portions that have a plate shape and extend in an extension direction of the electrode tabs, and that are connected with the electrode tabs of the pair of the cells, and an extension portion connecting the connection portions so that the conductive material of the conductive member is formed into a U-shape, and each of which electrically connects the electrode tabs of the pair of the cells; and a bus bar which electrically connects the conductive members disposed on the frame members of the plurality of the stacked frame members, and which are adjacent in a stacking direction. cells each including a battery main body in which a power generation element is received within an outer member, and electrode tabs including a positive electrode tab and a negative electrode tab which are connected with the power generation element, and which are provided to protrude from end portions of the outer member; frame members each including a front surface and a back surface on which the pair of the cells are mounted; conductive members each of which is disposed on an electrode tab connection portion of the frame member, each of which includes connection portions that have a plate shape and extend in an extension direction of the electrode tabs, and that are connected with the electrode tabs of the pair of the cells, and an extension portion connecting the connection portions so that the conductive material of the conductive member is formed into a U-shape, and each of which electrically connects the electrode tabs of the pair of the cells; and a bus bar which electrically connects the conductive members disposed on the frame members of the plurality of the stacked frame members, and which are adjacent in a stacking direction.
Fastening device for fastening two components, in particular furniture parts or furniture components, to each other, with at least one dowel, which can be located in a mounting hole of the associated component and which has an in particular cylindrical base body with a longitudinal axis and several ribs, which are arranged on the base body axially one behind the other relative to the longitudinal axis and at a distance from one another, wherein the ribs extend radially beyond an outer surface of the base body relative to the longitudinal axis, and wherein the ribs consist of an inherently stiff bendable material in such a way that the ribs bend in the insertion direction when being inserted into the associated mounting hole, so that they lock in the wall of the associated mounting hole at a movement against the insertion direction, wherein the cylindrical base body has two oppositely located end sections (24a, 24b), of which a front end section is in the state of use accommodated in the associated mounting hole and a rear end section has a fastening interface, where an associated further component can be or is fastened, wherein the rear end section has a tab extending from the dowel to a base section, wherein the dowel is a part of a front base connector having next to the base section the dowel as a side arm, wherein the base section has the shape of a cylinder with a flat section formed at the side of the base section which is opposite the dowel, where approximately in the centre of the flat section there is provided a mounting hole for the accommodation of a plug-in pin, characterised in that there is a fluting at the flat section, which lies in contact with the inside of the front in the assembled state of use of the front base connector.
A method for detaching tissue from a tissue section on a tissue slide, the method comprising - applying a 3D printed mask on top of the tissue section, the mask comprising barriers that define a cavity surrounding an area of interest on the tissue section, the cavity being open at a side facing the area of interest on the tissue section, wherein applying a 3D printed mask comprises 3D printing the 3D printed mask directly upon the tissue section, - dispensing a detaching liquid to the cavity, and allowing the detaching liquid to detach tissue at the area of interest, - aspirating the detaching liquid with the detached tissue from the cavity, and forwarding the liquid for further processing. - applying a 3D printed mask on top of the tissue section, the mask comprising barriers that define a cavity surrounding an area of interest on the tissue section, the cavity being open at a side facing the area of interest on the tissue section, wherein applying a 3D printed mask comprises 3D printing the 3D printed mask directly upon the tissue section, - dispensing a detaching liquid to the cavity, and allowing the detaching liquid to detach tissue at the area of interest, - aspirating the detaching liquid with the detached tissue from the cavity, and forwarding the liquid for further processing.
An electromagnetic pen, comprising: a housing; and a pen body located in the housing, wherein the housing comprises a front housing and a rear housing, the pen body comprises a pen core, a first iron core, an iron core holder, and a PCBA circuit board, a coil is wound outside the first iron core, the first iron core is fixed at an end of the iron core holder close to a pen tip of the pen core, a second iron core is disposed in the iron core holder, and the pen core is configured to pass through a center of the first iron core, and then drive the second iron core to move; and wherein an elastic structure with a ring shape is disposed between the PCBA circuit board and the iron core holder, a clamping slot is disposed on the PCBA circuit board, and an end portion matched with the clamping slot is disposed on the rear housing. a housing; and a pen body located in the housing, wherein the housing comprises a front housing and a rear housing, the pen body comprises a pen core, a first iron core, an iron core holder, and a PCBA circuit board, a coil is wound outside the first iron core, the first iron core is fixed at an end of the iron core holder close to a pen tip of the pen core, a second iron core is disposed in the iron core holder, and the pen core is configured to pass through a center of the first iron core, and then drive the second iron core to move; and wherein an elastic structure with a ring shape is disposed between the PCBA circuit board and the iron core holder, a clamping slot is disposed on the PCBA circuit board, and an end portion matched with the clamping slot is disposed on the rear housing.