mhurhangee/patent-ind-claim-en huggingface dataset:
A fuel cell vehicle comprising: a stack frame on which a fuel cell stack is provided, the stack frame being placed in front of a vehicle cabin, the stack frame including a central member , a right member joined to a right edge portion of the central member , a left member joined to a left edge portion of the central member , and a front cross member , the front cross member being joined to front edge portions of the central member , the right member , and the left member , a front-end portion (W12a) of a first joining portion (W12) between the central member and the right member and a front-end portion (W23a) of a second joining portion (W23) between the central member and the left member being overlapping with a third joining portion (W40) of the front cross member with the front edge portions of the central member , the right member , and the left member ; and a fuel tank (P1) placed behind the stack frame such that when the fuel cell vehicle receives a front-end collision and the fuel tank (P1) moves forward, the fuel tank (P1) makes contact with the right member and the left member . a stack frame on which a fuel cell stack is provided, the stack frame being placed in front of a vehicle cabin, the stack frame including a central member , a right member joined to a right edge portion of the central member , a left member joined to a left edge portion of the central member , and a front cross member , the front cross member being joined to front edge portions of the central member , the right member , and the left member , a front-end portion (W12a) of a first joining portion (W12) between the central member and the right member and a front-end portion (W23a) of a second joining portion (W23) between the central member and the left member being overlapping with a third joining portion (W40) of the front cross member with the front edge portions of the central member , the right member , and the left member ; and the stack frame including a central member , a right member joined to a right edge portion of the central member , a left member joined to a left edge portion of the central member , and a front cross member , the front cross member being joined to front edge portions of the central member , the right member , and the left member , a front-end portion (W12a) of a first joining portion (W12) between the central member and the right member and a front-end portion (W23a) of a second joining portion (W23) between the central member and the left member being overlapping with a third joining portion (W40) of the front cross member with the front edge portions of the central member , the right member , and the left member ; and a fuel tank (P1) placed behind the stack frame such that when the fuel cell vehicle receives a front-end collision and the fuel tank (P1) moves forward, the fuel tank (P1) makes contact with the right member and the left member .
Timepiece display mechanism , including a first drive wheel arranged to be driven by a horological movement or by a drive mechanism, said first drive wheel including first drive means arranged to move a sliding carriage carrying a display forwards along at least a part of a first path T1 defined by first guiding means arranged to cooperate in a complementary manner with complementary guiding means included in said sliding carriage , said display mechanism including at least a second drive wheel arranged to be driven by said first drive wheel or by a said horological movement or by a said drive mechanism, said second drive wheel including second drive means arranged to move said sliding carriage forwards along at least a part of a second path T2 defined by second guiding means arranged to cooperate in a complementary manner with said complementary guiding means of said sliding carriage , said second path T2 being secant or tangent at at least one point with said first path T1, said display mechanism including a mobile sliding block which includes at least one transfer guiding means arranged to guide, at at least one said point, said sliding carriage to pass from said first path T1 to said second path T2 and vice versa, said display mechanism including, for driving said sliding block , a geartrain arranged to be driven by a said horological movement or by a said drive mechanism, characterised in that said geartrain includes a first transfer wheel and a second transfer wheel that are synchronous, respectively carrying a first transfer cam and a second transfer cam wherein the tracks cooperate with two feeler-spindles of the same pivoting rack which drives, with a toothed sector included therein, a drive wheel arranged to drive in a linear manner a rack included in said sliding block .
Cleaning apparatus , in particular conveyor dishwasher , having multiple treatment zones for items to be cleaned , wherein the multiple treatment zones are assigned in each case one tank , wherein one of the treatment zones has a dirt separator which is operable in a secondary flow line , characterized in that said dirt separator, via a multi-way valve , feeds rinsing fluid cleaned by the dirt separator , according to need, to a treatment zone which, as seen in the transport direction of the items to be cleaned , is situated downstream, or, via a switching apparatus , discharges dirt separated from the cleaned rinsing fluid into a wastewater system at periodic intervals.
An ignition device for a gas cooking appliance, the ignition device comprising at least one ignition device module with a primary voltage input terminal , a transformer , and at least one secondary voltage output terminal , wherein the transformer is adapted to transform a primary voltage applied to the primary voltage input terminal into a secondary voltage at the secondary voltage output terminal, and the secondary output terminal is adapted to be connected to a spark electrode, characterized in that : the ignition device module further comprises a primary voltage output terminal .
An aqueous pharmaceutical formulation comprising: (a) an isolated anti-Aβ protofibril antibody that binds to human Aβ protofibrils, at a concentration of 80 mg/mL to 300 mg/mL, (b) 100 mM to 400 mM arginine, (c) 0.01% w/v to 0.1% w/v polysorbate 80, and (d) a pharmaceutically acceptable buffer, wherein the pharmaceutical formulation has a pH ranging from 4.5 to 5.5, wherein the isolated anti-Aβ protofibril antibody is lecanemab, and wherein the arginine is arginine, arginine hydrochloride, or a combination thereof. (a) an isolated anti-Aβ protofibril antibody that binds to human Aβ protofibrils, at a concentration of 80 mg/mL to 300 mg/mL, (b) 100 mM to 400 mM arginine, (c) 0.01% w/v to 0.1% w/v polysorbate 80, and (d) a pharmaceutically acceptable buffer, wherein the pharmaceutical formulation has a pH ranging from 4.5 to 5.5, wherein the isolated anti-Aβ protofibril antibody is lecanemab, and wherein the arginine is arginine, arginine hydrochloride, or a combination thereof.
A soft chew, the soft chew comprising: a flavoring component of between 0.1 to 50 percent wt, a starch component of between 5 to 60 percent wt, a sugar component, between 5.0 to 75 percent wt, an oil component between 1.0 to 40 percent wt; and a pharmaceutical as a first additive, wherein the moisture content is less than 15 percent wt; wherein the soft chew is formed by knockout, the soft chew is not an extrudate; wherein the composition further comprises an emulsifier component comprising polyethylene glycol as forming agent. a flavoring component of between 0.1 to 50 percent wt, a starch component of between 5 to 60 percent wt, a sugar component, between 5.0 to 75 percent wt, an oil component between 1.0 to 40 percent wt; and a pharmaceutical as a first additive, wherein the moisture content is less than 15 percent wt; wherein the soft chew is formed by knockout, the soft chew is not an extrudate; wherein the composition further comprises an emulsifier component comprising polyethylene glycol as forming agent.
A method for measuring a Doppler effect of a scattered light, the method comprising: projecting an ultra violet, UV, light towards a target by a light emitter; receiving the UV light scatter from the target from the emitted UV light reflected from the target by a light receiver; measuring the frequency shift of the UV light scatter with respect to the emitted UV light to obtain a distribution of line of sight velocity of microscopic matters of the target that corresponds to a Doppler shift; processing the distribution of the line of sight velocity to determine the Doppler effect of the UV light scatter to produce a Doppler spectrum using a Doppler shift estimation algorithm; and separating a wind line of sight velocity as the centroid shift of the Doppler spectrum; the method being characterized by further comprising : adaptively changing the number and the width of spectral shift bins applied to the Doppler shift estimation algorithm according to a number of photons required for each bin and a predetermined required precision of the wind line of sight velocity. projecting an ultra violet, UV, light towards a target by a light emitter; receiving the UV light scatter from the target from the emitted UV light reflected from the target by a light receiver; measuring the frequency shift of the UV light scatter with respect to the emitted UV light to obtain a distribution of line of sight velocity of microscopic matters of the target that corresponds to a Doppler shift; processing the distribution of the line of sight velocity to determine the Doppler effect of the UV light scatter to produce a Doppler spectrum using a Doppler shift estimation algorithm; and separating a wind line of sight velocity as the centroid shift of the Doppler spectrum; the method being characterized by further comprising : adaptively changing the number and the width of spectral shift bins applied to the Doppler shift estimation algorithm according to a number of photons required for each bin and a predetermined required precision of the wind line of sight velocity.
Valve device , in particular for throttling a pressure medium flow in a pressure medium-conducting channel, having a valve body which forms a throttle cross section surrounded by a valve seat , and having a valve member which is movably accommodated in the valve body , and which sets the throttle cross section in a manner dependent on the prevailing pressure conditions, and which is loaded by an elastic restoring element counter to the throughflow direction of the valve device , wherein the valve member is provided with flow-directing means in the form of at least one groove which is able to be flowed through by the pressure medium, said at least one groove, in the state of the valve member in which the latter is flowed around, bringing about a transverse force (Q) which loads the valve member and acts transversely to the throughflow direction of the valve device , characterized by at least one wing-like projection on the valve member , which is flowed around by the pressure medium and is arranged on a transition region from the first peripheral portion, provided with flow-directing means , of the valve member to the second peripheral portion, which is free of flow-directing means (22; 24) .
A heat exchange apparatus comprising: a heat-transfer pipe through which a refrigerant flows; a heat exchanger in which a plurality of the heat-transfer pipes are connected to one another and heat exchange between air and the refrigerant is performed; a distributor that distributes the refrigerant to the plurality of heat-transfer pipes ; an inflow pipe that causes the refrigerant to flow into the distributor , wherein the inflow pipe has a straight part; and a confluent pipe which is connected to an intermediate position of the inflow pipe and in which the refrigerant flowing through an inside thereof is to merge with the refrigerant flowing through an inside of the inflow pipe , wherein a merging part between the inflow pipe and the confluent pipe is positioned so as to satisfy 4 ≤ LF/D1 ≤ 7 in association with the range of Gr = 0.012 to 0.083 [kg/s], wherein LF is the distance between the merging part and the distributor , D1 is the pipe inner diameter of the merging part , and Gr is the mass flow rate in the distance LF. and wherein the confluent pipe is connected to be substantially perpendicular to the inflow pipe . a heat-transfer pipe through which a refrigerant flows; a heat exchanger in which a plurality of the heat-transfer pipes are connected to one another and heat exchange between air and the refrigerant is performed; a distributor that distributes the refrigerant to the plurality of heat-transfer pipes ; an inflow pipe that causes the refrigerant to flow into the distributor , wherein the inflow pipe has a straight part; and a confluent pipe which is connected to an intermediate position of the inflow pipe and in which the refrigerant flowing through an inside thereof is to merge with the refrigerant flowing through an inside of the inflow pipe , wherein a merging part between the inflow pipe and the confluent pipe is positioned so as to satisfy 4 ≤ LF/D1 ≤ 7 in association with the range of Gr = 0.012 to 0.083 [kg/s], wherein LF is the distance between the merging part and the distributor , D1 is the pipe inner diameter of the merging part , and Gr is the mass flow rate in the distance LF. and wherein the confluent pipe is connected to be substantially perpendicular to the inflow pipe .
Process for the separation of air by cryogenic distillation in a system of columns comprising a first column and a second column operating at a lower pressure than the first column, comprising the steps of: i) compression of all of the feed air in a first compressor up to a first outlet pressure of at most one bar greater than and preferably substantially equal to the pressure of the first column, ii) sending a first part of the air under the first outlet pressure to a second compressor , and compression of the air to a second outlet pressure, iii) cooling and condensation of at least a part of the air under the second outlet pressure in a heat exchanger , iv) sending an air gas flow under the first outlet pressure to the system of columns, without more forceful compression, and separation of the air in the system of columns, v) withdrawal of the liquid from a column of the system of columns, pressurization of the liquid and vaporization of the liquid by a heat exchange in the heat exchanger, and vi) reduction in pressure of at least a fraction of the cooled and condensed air, from the second outlet pressure to at least a third pressure, at least partial vaporization of said air in the heat exchanger under the at least one third pressure, the third pressure being intermediate between the first outlet pressure and the second outlet pressure, optionally heating said at least partially vaporized air in the heat exchanger, characterized in that at least a vaporized part of this air is sent to the second compressor in order to be compressed up to the second outlet pressure. i) compression of all of the feed air in a first compressor up to a first outlet pressure of at most one bar greater than and preferably substantially equal to the pressure of the first column, ii) sending a first part of the air under the first outlet pressure to a second compressor , and compression of the air to a second outlet pressure, iii) cooling and condensation of at least a part of the air under the second outlet pressure in a heat exchanger , iv) sending an air gas flow under the first outlet pressure to the system of columns, without more forceful compression, and separation of the air in the system of columns, v) withdrawal of the liquid from a column of the system of columns, pressurization of the liquid and vaporization of the liquid by a heat exchange in the heat exchanger, and vi) reduction in pressure of at least a fraction of the cooled and condensed air, from the second outlet pressure to at least a third pressure, at least partial vaporization of said air in the heat exchanger under the at least one third pressure, the third pressure being intermediate between the first outlet pressure and the second outlet pressure, optionally heating said at least partially vaporized air in the heat exchanger, characterized in that at least a vaporized part of this air is sent to the second compressor in order to be compressed up to the second outlet pressure.
. A method of determining the concentration of an analyte in a whole blood sample, the method comprising: flowing a whole blood sample through a microfluidic channel defined by an inner surface and wherein an optical fiber is used inside the microfluidic channel , wherein the whole blood surrounds the optical fiber as it flows through the microfluidic channel , and wherein the optical fiber is placed parallel to the central axis of the microfluidic channel such that the optical fiber is not in contact with the inner surface of the microfluidic channel , generating a cell-free plasma layer around the optical fiber , and a cell-free plasma layer formed along the inner surface of the microfluidic channel , using Fahraeus Effect, and a layer of red blood cells in between the cell-free plasma layers ; irradiating light into the optical fiber , thereby directing light at the plasma layer ; capturing light reflected off of the plasma layer ; and analyzing the reflected light to determine the concentration of the analyte. flowing a whole blood sample through a microfluidic channel defined by an inner surface and wherein an optical fiber is used inside the microfluidic channel , wherein the whole blood surrounds the optical fiber as it flows through the microfluidic channel , and wherein the optical fiber is placed parallel to the central axis of the microfluidic channel such that the optical fiber is not in contact with the inner surface of the microfluidic channel , generating a cell-free plasma layer around the optical fiber , and a cell-free plasma layer formed along the inner surface of the microfluidic channel , using Fahraeus Effect, and a layer of red blood cells in between the cell-free plasma layers ; irradiating light into the optical fiber , thereby directing light at the plasma layer ; capturing light reflected off of the plasma layer ; and analyzing the reflected light to determine the concentration of the analyte.
A weather strip for an automobile comprising: an installation base member to be operatively coupled on a flange, the flange being provided to a body of the automobile at a periphery edge of an opening corresponding to a door; and a hollow seal member integrally molded with the installation base member , the hollow seal member protruding from the installation base member toward a side of the door at an outer-cabin side, the hollow seal member making elastic contact with the door when the door is in a closed position, wherein the hollow seal member and the installation base member continued from the hollow seal member each have an exposed outer surface, an outer surface of the hollow seal member being formed wholly by a non-electric conductive material, an outer surface of the installation base member being formed partially or wholly by the non-electric conductive material , the two non-electric conductive materials being sequentially continuous, the non-electric conductive materials having the volume resistivity of 10 6 Qcm or greater, wherein at least the outer surface of the hollow seal member and an outer surface of a first side wall of the installation base member are continuously formed by the non-electric conductive material , the first side wall being located at an outer side of the opening corresponding to the door, the installation base member being continued from the hollow seal member , characterized in that the first side wall of the installation base member is provided with a seal lip , the seal lip protruding from the first side wall and making an elastic contact with the periphery edge of the opening corresponding to the door, wherein the hollow seal member and the seal lip are made of a sponge material composed of an EPDM polymer added with carbon black, and in which at least the outer surface of the hollow seal member and an outer surface of the seal lip are continuously formed by the non-electric conductive material , wherein the outer surface extending from the hollow seal member to the seal lip is covered with a sponge material that is the same as the material of the hollow seal member and the seal lip .
A dental X-ray radiographing apparatus, the apparatus comprising: a radiographing unit including a rotary arm , an X-ray generator arranged on one side of the rotary arm and an X-ray sensor arranged on the other side of the rotary arm ; a rotation driver adapted for rotating the rotary arm about a vertical rotation axis and a target interposed between the X-ray generator and the X-ray sensor; wherein the target is a head of an examinee; and a radiographing housing providing a radiographing space adapted for receiving a part or entirety of the target and covering the radiographing unit , wherein the radiographing housing includes: a lower part configured to be opened in order to provide the radiographing space; and an upper part configured to be closed in order to make configuration components of the radiographing unit invisible to the examinee, characterized in that the radiographing housing is a non-rotating structure and covers an inner surface of the rotation range of the radiographing unit ; and the radiographing space has a conical shape such that a width thereof increases along a downward direction. a radiographing unit including a rotary arm , an X-ray generator arranged on one side of the rotary arm and an X-ray sensor arranged on the other side of the rotary arm ; a rotation driver adapted for rotating the rotary arm about a vertical rotation axis and a target interposed between the X-ray generator and the X-ray sensor; wherein the target is a head of an examinee; and a radiographing housing providing a radiographing space adapted for receiving a part or entirety of the target and covering the radiographing unit , wherein the radiographing housing includes: a lower part configured to be opened in order to provide the radiographing space; and an upper part configured to be closed in order to make configuration components of the radiographing unit invisible to the examinee, characterized in that the radiographing housing is a non-rotating structure and covers an inner surface of the rotation range of the radiographing unit ; and the radiographing space has a conical shape such that a width thereof increases along a downward direction. a lower part configured to be opened in order to provide the radiographing space; and an upper part configured to be closed in order to make configuration components of the radiographing unit invisible to the examinee, characterized in that the radiographing housing is a non-rotating structure and covers an inner surface of the rotation range of the radiographing unit ; and the radiographing space has a conical shape such that a width thereof increases along a downward direction.