mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for facilitating an analysis of at least one tissue sample, comprising: at least one first arrangement having a substantially flat surface, which is configured to receive the at least one tissue sample thereon, wherein the at least one first arrangement includes a window (110, 1010); and at least one second arrangement (125, 515, 1015) which is configured to contact at least one portion of the at least one tissue sample and apply a first force on the at least one portion such that at least one surface of the at least one tissue sample is flattened against at least one section of the at least one first arrangement; wherein the at least one second arrangement (125, 515, 1015) includes at least one of (i) at least one inflatable arrangement (125, 515), (ii) a plurality of pins or (iii) at least one flexible tissue holding arrangement; and at least one third arrangement (205, 520, 1120) configured to apply a second force on the at least one second arrangement (125, 515, 1015) which causes the first force to be applied to the at least one portion. at least one first arrangement having a substantially flat surface, which is configured to receive the at least one tissue sample thereon, wherein the at least one first arrangement includes a window (110, 1010); and at least one second arrangement (125, 515, 1015) which is configured to contact at least one portion of the at least one tissue sample and apply a first force on the at least one portion such that at least one surface of the at least one tissue sample is flattened against at least one section of the at least one first arrangement; wherein the at least one second arrangement (125, 515, 1015) includes at least one of (i) at least one inflatable arrangement (125, 515), (ii) a plurality of pins or (iii) at least one flexible tissue holding arrangement; and at least one third arrangement (205, 520, 1120) configured to apply a second force on the at least one second arrangement (125, 515, 1015) which causes the first force to be applied to the at least one portion.
Process for preparing a purified hydrochloric acid composition from a stream of a contaminated hydrochloric acid composition by a distillation treatment, wherein at least a first distillation column is operated at a first pressure and a second distillation column is operated at a second pressure, which second pressure is lower than the first pressure; wherein the contaminated hydrochloric acid composition comprises water, contaminants and hydrochloric acid in a first hydrochloric acid concentration of above the azeotropic composition of hydrochloric acid and water at the first pressure; wherein a part of the stream of the contaminated hydrochloric acid composition is fed into the first distillation column to yield a first bottom product comprising water and hydrochloric acid with a hydrochloric acid concentration below the first hydrochloric acid concentration and a first top product comprising hydrochloric acid in a concentration above the azeotropic hydrochloric acid composition at the first pressure; wherein at least a portion of the first bottom product is passed to the second distillation column; wherein another part of the stream of the contaminated hydrochloric acid composition is fed into the second distillation column to yield a second top product comprising contaminants and water, and a second bottom product comprising water and hydrochloric acid; wherein at least a part of the second bottom product is recycled into the first distillation column; and wherein the first top product is recovered as purified hydrochloric acid composition.
Curb stone or paving stone charging system for charging an energy store of an electrically driven vehicle, comprising a curb stone or paving stone unit with a surface defining a walking or driving surface in the installed state, a charging socket with an insertion opening via which electrical contacts of the charging socket are accessible and which is at least indirectly attached to the curb stone or paving stone unit, a plug which can be inserted into the insertion opening of the charging socket for contacting the contacts of the charging socket, a socket cover for covering the insertion opening of the charging socket temporally outside the charging process, which is rotatably mounted via a pivot axis to the curb stone or paving stone unit, characterized in that the plug has a recess on an outer circumference of its housing and the socket cover has a bulge on its outer circumference opposite the pivot axis, the outwardly pointing end of which can be received in the recess. a curb stone or paving stone unit with a surface defining a walking or driving surface in the installed state, a charging socket with an insertion opening via which electrical contacts of the charging socket are accessible and which is at least indirectly attached to the curb stone or paving stone unit, a plug which can be inserted into the insertion opening of the charging socket for contacting the contacts of the charging socket, a socket cover for covering the insertion opening of the charging socket temporally outside the charging process, which is rotatably mounted via a pivot axis to the curb stone or paving stone unit, characterized in that the plug has a recess on an outer circumference of its housing and the socket cover has a bulge on its outer circumference opposite the pivot axis, the outwardly pointing end of which can be received in the recess.
A valve device having a recess provided in a casing; a diaphragm covering the recess so as to form a valve chest as a space between the recess and the diaphragm in which a fluid flows; an inflow port opened at the recess and allowing the fluid to flow into the valve chest, with the inflow port always being opened, and with the fluid being supplied from the inflow port into the valve chest; an outflow port (24, 25) opened at the recess and allowing the fluid to flow out from the valve chest, wherein an outflow opening (24a, 25a) of the outflow port (24, 25) is provided with a valve seat (24b, 25b); and a diaphragm driving means for oscillating the diaphragm to allow the diaphragm to closely fit to or separate from the valve seat (24b, 25b) of the outflow opening (24a, 25a) so as to shut or open the outflow port (24, 25), wherein the recess has an inclined portion (81, 82) whose depth gradually increases from the valve seat side toward an inflow opening where the inflow port communicates with the valve chest, the valve chest has a vertical direction (x) in which the outflow port (24, 25) and the inflow port are arranged, and a width direction orthogonal to the vertical direction and the direction of the depth; characterized in that the valve seat (24b, 25b) is formed as a cylindrical shape protruding toward the diaphragm, and a first protrusion is provided on each side of the inflow opening in the width direction, the inclined portion (81, 82) has a taper shape in which the width is gradually increased from the inflow opening toward the valve seat (24b, 25b). a recess provided in a casing; a diaphragm covering the recess so as to form a valve chest as a space between the recess and the diaphragm in which a fluid flows; an inflow port opened at the recess and allowing the fluid to flow into the valve chest, with the inflow port always being opened, and with the fluid being supplied from the inflow port into the valve chest; an outflow port (24, 25) opened at the recess and allowing the fluid to flow out from the valve chest, wherein an outflow opening (24a, 25a) of the outflow port (24, 25) is provided with a valve seat (24b, 25b); and a diaphragm driving means for oscillating the diaphragm to allow the diaphragm to closely fit to or separate from the valve seat (24b, 25b) of the outflow opening (24a, 25a) so as to shut or open the outflow port (24, 25), the recess has an inclined portion (81, 82) whose depth gradually increases from the valve seat side toward an inflow opening where the inflow port communicates with the valve chest, the valve chest has a vertical direction (x) in which the outflow port (24, 25) and the inflow port are arranged, and a width direction orthogonal to the vertical direction and the direction of the depth;
Round bearing having a circumferential surface forming a bearing surface, which circumferential surface is preferably finely machined and in which an oil-retaining structure is provided for forming an oil-retaining volume, wherein at least one groove section (44, 46, 52) opens into one of the circumferential edges of the circumferential surface, wherein the bearing surface is formed by a bearing bush having a varying axial length (L, I) in trapezoidal form, characterized by at least one circumferential spiral groove (42, 50), the end sections of which open in each case into a leading edge and into a trailing edge of the circumferential edges, wherein the at least one groove section (44, 46, 52) is part of the spiral groove or spaced therefrom, wherein orifice regions of the groove sections (44, 46, 52) and/or of the spiral grooves (42, 50) are widened to form oil-trapping points.
A method of producing a synthetic diamond, the method comprising: (a) capturing carbon dioxide from the atmosphere; (b) performing electrolysis of water to provide hydrogen and oxygen; (c) reacting carbon dioxide obtained from step (a) with hydrogen obtained from step (b) to produce methane; (d) using hydrogen obtained from step (b) and methane obtained from step (c) to produce a synthetic diamond by chemical vapour deposition; (e) reacting oxygen produced from step (b) with carbon produced by the chemical vapour deposition in step (d) to produce carbon dioxide; and (f) adding carbon dioxide produced in step (e) to carbon dioxide obtained from step (a) prior to step (c). (a) capturing carbon dioxide from the atmosphere; (b) performing electrolysis of water to provide hydrogen and oxygen; (c) reacting carbon dioxide obtained from step (a) with hydrogen obtained from step (b) to produce methane; (d) using hydrogen obtained from step (b) and methane obtained from step (c) to produce a synthetic diamond by chemical vapour deposition; (e) reacting oxygen produced from step (b) with carbon produced by the chemical vapour deposition in step (d) to produce carbon dioxide; and (f) adding carbon dioxide produced in step (e) to carbon dioxide obtained from step (a) prior to step (c).
A composite comprising a polyethylene and within a range from 1 wt% to 25 wt% of at least one cyclic-olefin copolymer by weight of the composition, wherein the cyclic-olefin copolymer has a glass transition temperature (Tg) of at least 30°C, characterized in that the polyethylene is LLDPE, optionally together with LDPE and/or HDPE, the LLDPE being produced using metal catalyst and having a g'vis of 0.8, or 0.85 to 0.95 or 1; wherein Tg is determined by differential scanning calorimetry on the second heating cycle as described herein; and g'vis is determined as described herein by using a high temperature GPC equipped with three in-line detectors, namely a differential refractive index detector, a light scattering detector, in conjunction with a viscosimeter. Tg is determined by differential scanning calorimetry on the second heating cycle as described herein; and g'vis is determined as described herein by using a high temperature GPC equipped with three in-line detectors, namely a differential refractive index detector, a light scattering detector, in conjunction with a viscosimeter.
Drying device for drying painted workpieces (6, 6'), comprising - at least two drying units (2, 2'), wherein the individual drying units are set up to receive a number of painted workpieces (6, 6'), - heating means, which are set up to generate a constant temperature in the drying device and in each of the drying units (2, 2'), wherein a first number of workpieces in a drying unit and a second number of workpieces in a further drying unit can be dried independently of each ocher in terms of time, - a control unit, and - at least one distributing device (3, 3'), wherein the workpieces can be inserted in and/or removed from the drying units by means of the at least one distributing device (3, 3'), characterized in that the control unit is set up - to control the at least one distributing device (3, 3'), - to insert the workpieces in a free drying unit in the drying device and - to remove the workpieces from the drying device, wherein the control unit has a timer, a memory and a processor for determining the retention time of the workpieces in respectively one of the drying units. - at least two drying units (2, 2'), wherein the individual drying units are set up to receive a number of painted workpieces (6, 6'), - heating means, which are set up to generate a constant temperature in the drying device and in each of the drying units (2, 2'), wherein a first number of workpieces in a drying unit and a second number of workpieces in a further drying unit can be dried independently of each ocher in terms of time, - a control unit, and - at least one distributing device (3, 3'), wherein the workpieces can be inserted in and/or removed from the drying units by means of the at least one distributing device (3, 3'), characterized in that the control unit is set up - to control the at least one distributing device (3, 3'), - to insert the workpieces in a free drying unit in the drying device and - to remove the workpieces from the drying device, wherein the control unit has a timer, a memory and a processor for determining the retention time of the workpieces in respectively one of the drying units.
A boot comprising: a boot body having a lower region adapted to cover a foot of a wearer and an upper region adapted to cover at least a portion of a shin of the wearer; a first lacing zone comprising a first lace adapted to tighten a first region of the boot, the first lace having a portion that is disposed at the upper region; and a second lacing zone comprising a second lace adapted to tighten a second region of the boot, the second lace having a portion that is disposed at the upper region of the boot; the first lace and the second lace may be tightened independently and may be secured simultaneously at the upper region of the boot to achieve different levels of tightness in the first and second lacing zones. a boot body having a lower region adapted to cover a foot of a wearer and an upper region adapted to cover at least a portion of a shin of the wearer; a first lacing zone comprising a first lace adapted to tighten a first region of the boot, the first lace having a portion that is disposed at the upper region; and a second lacing zone comprising a second lace adapted to tighten a second region of the boot, the second lace having a portion that is disposed at the upper region of the boot; the first lace and the second lace may be tightened independently and may be secured simultaneously at the upper region of the boot to achieve different levels of tightness in the first and second lacing zones.
A method of wireless communication of a user equipment, UE, comprising: determining to acquire a shared broadcast service, wherein the shared broadcast service carries content that is accessible by UEs irrespective of their mobile network operator, MNO, subscription; tuning to a frequency provided by a first MNO to which the UE is not a subscriber in order to receive the shared broadcast service via a carrier shared by the first MNO and at least one other MNO; receiving the shared broadcast service on the frequency via the carrier shared by the first MNO and the at least one other MNO, wherein the shared carrier is a standalone shared carrier for receiving the shared broadcast service and control information associated with the shared broadcast service; and receiving a frame timing and a system information block, SIB, via the standalone shared carrier without having previously received a primary synchronization signal, PSS, and a second synchronization signal, SSS, via the standalone shared carrier. determining to acquire a shared broadcast service, wherein the shared broadcast service carries content that is accessible by UEs irrespective of their mobile network operator, MNO, subscription; tuning to a frequency provided by a first MNO to which the UE is not a subscriber in order to receive the shared broadcast service via a carrier shared by the first MNO and at least one other MNO; receiving the shared broadcast service on the frequency via the carrier shared by the first MNO and the at least one other MNO, wherein the shared carrier is a standalone shared carrier for receiving the shared broadcast service and control information associated with the shared broadcast service; and receiving a frame timing and a system information block, SIB, via the standalone shared carrier without having previously received a primary synchronization signal, PSS, and a second synchronization signal, SSS, via the standalone shared carrier.
A buffer for mold for ceramic industry comprising a body with concave portion adapted to be the bottom of an injection chamber of raw materials for production of a ceramic tile, said concave portion being perimetrally defined by an edge protruding from said body and wherein said edge comprises an external profile area on one side of the edge opposite the one facing said concave portion, characterized in that said buffer is made of aluminum or aluminum alloy and at least said external profile area is superficially treated with hard anodization process in such manner to obtain a hard superficial layer with thickness from 70 to 80 microns.
A process comprising the steps of, a) providing an electrolyser; b) receiving a series of dispatches indicating a specified power consumption for a period of time, the dispatches occurring at least once every 30 minutes; c) operating the electrolyser according to the dispatches; and, d) discharging hydrogen produced during step c) to a natural gas system, wherein the electrolyser has multiple stack assemblies each having a separate power supply and a controller adapted to operate the multiple stack assemblies at different rates of power consumption at the same time and further comprising steps of, e) dividing the electrolyser into a set of discrete stack assemblies; f) operating a first set of the discrete stack assemblies according to the dispatch orders; and, g) shutting down a second set of the discrete stack assemblies, placing the second set of the discrete stack assemblies into a standby mode, or operating the second set of the discrete assemblies to produce hydrogen only when the price of electricity is at or below a specified value. a) providing an electrolyser; b) receiving a series of dispatches indicating a specified power consumption for a period of time, the dispatches occurring at least once every 30 minutes; c) operating the electrolyser according to the dispatches; and, d) discharging hydrogen produced during step c) to a natural gas system, wherein the electrolyser has multiple stack assemblies each having a separate power supply and a controller adapted to operate the multiple stack assemblies at different rates of power consumption at the same time and further comprising steps of, e) dividing the electrolyser into a set of discrete stack assemblies; f) operating a first set of the discrete stack assemblies according to the dispatch orders; and, g) shutting down a second set of the discrete stack assemblies, placing the second set of the discrete stack assemblies into a standby mode, or operating the second set of the discrete assemblies to produce hydrogen only when the price of electricity is at or below a specified value.
A contact lens case (10, 60) including: a container main body provided with a housing recess configured to store a contact lens and a liquid agent (23, 61) for soaking the contact lens; and a lid that is connected to the container main body via a hinge (18, 76) in a freely openable and closable manner so as to cover an upper opening of the housing recess, and: a lens holding body that holds the contact lens is housed in the housing recess in a displaceable manner; whereby the lid and the lens holding body are connected via a connecting member so that the lens holding body undergoes rising and falling displacement following open and close action of the lid around the hinge (18, 76); and a displacement restricting means (46, 48) is provided that restricts a direction of the rising and falling displacement of the lens holding body to a vertical direction that coincides with a depth direction of the housing recess. a lens holding body that holds the contact lens is housed in the housing recess in a displaceable manner; whereby the lid and the lens holding body are connected via a connecting member so that the lens holding body undergoes rising and falling displacement following open and close action of the lid around the hinge (18, 76); and a displacement restricting means (46, 48) is provided that restricts a direction of the rising and falling displacement of the lens holding body to a vertical direction that coincides with a depth direction of the housing recess.
A method of manufacturing an electronics package, the method comprising the steps below in the following order: providing a first dielectric layer; forming a metalized contact layer on a first surface of the first dielectric layer; forming a first plurality of metalized vias on a second surface of the first dielectric layer opposite the first surface, the first plurality of metalized vias extending through a thickness of the first dielectric layer to contact at least a portion of the metalized contact layer; forming a first electrical component opening through the thickness of the first dielectric layer; coupling a second dielectric layer to the second surface of the first dielectric layer; positioning a first electrical component (68,72) within the first electrical component opening; forming a second plurality of metalized vias on a bottom surface of the second dielectric layer, the second plurality of metalized vias extending through a thickness of the second dielectric layer to couple the metalized contact layer to the first electrical component; and coupling a first conductive element (114,118) between the first electrical component (68,72) and the metalized contact layer. providing a first dielectric layer; forming a metalized contact layer on a first surface of the first dielectric layer; forming a first plurality of metalized vias on a second surface of the first dielectric layer opposite the first surface, the first plurality of metalized vias extending through a thickness of the first dielectric layer to contact at least a portion of the metalized contact layer; forming a first electrical component opening through the thickness of the first dielectric layer; coupling a second dielectric layer to the second surface of the first dielectric layer; positioning a first electrical component (68,72) within the first electrical component opening; forming a second plurality of metalized vias on a bottom surface of the second dielectric layer, the second plurality of metalized vias extending through a thickness of the second dielectric layer to couple the metalized contact layer to the first electrical component; and coupling a first conductive element (114,118) between the first electrical component (68,72) and the metalized contact layer.