mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a carbonaceous material for a non-aqueous electrolyte secondary battery anode, the method comprising: an alkali impregnating step of adding a compound containing an elemental alkali metal to a carbonaceous precursor to obtain an alkali metal compound-impregnated carbonaceous precursor; a firing step of: (a) obtaining a heat-treated product by performing main heat treatment on the alkali metal compound-impregnated carbonaceous precursor at 1100°C to 1500°C in a non-oxidizing gas atmosphere, or (b) obtaining a heat-treated product by performing pre-heat treatment on the alkali metal compound-impregnated carbonaceous precursor at a temperature of not lower than 400°C and lower than 800°C in a non-oxidizing gas atmosphere and then performing main heat treatment at 1100°C to 1500°C in a non-oxidizing gas atmosphere; and coating the heat-treated product with pyrolytic carbon. an alkali impregnating step of adding a compound containing an elemental alkali metal to a carbonaceous precursor to obtain an alkali metal compound-impregnated carbonaceous precursor; a firing step of: (a) obtaining a heat-treated product by performing main heat treatment on the alkali metal compound-impregnated carbonaceous precursor at 1100°C to 1500°C in a non-oxidizing gas atmosphere, or (b) obtaining a heat-treated product by performing pre-heat treatment on the alkali metal compound-impregnated carbonaceous precursor at a temperature of not lower than 400°C and lower than 800°C in a non-oxidizing gas atmosphere and then performing main heat treatment at 1100°C to 1500°C in a non-oxidizing gas atmosphere; and (a) obtaining a heat-treated product by performing main heat treatment on the alkali metal compound-impregnated carbonaceous precursor at 1100°C to 1500°C in a non-oxidizing gas atmosphere, or (b) obtaining a heat-treated product by performing pre-heat treatment on the alkali metal compound-impregnated carbonaceous precursor at a temperature of not lower than 400°C and lower than 800°C in a non-oxidizing gas atmosphere and then performing main heat treatment at 1100°C to 1500°C in a non-oxidizing gas atmosphere; and coating the heat-treated product with pyrolytic carbon.
An antibody or antigen-binding portion thereof which binds to PSMA and comprises a heavy chain variable domain and a light chain variable domain, wherein the heavy chain variable domain comprises the sequence given in SEQ ID NO: 13, and wherein the light chain variable domain comprises the sequence given in SEQ ID NO: 18.
A process for manufacturing a composite structure, comprising: providing a plurality of first mandrels, each of the first mandrels comprising a base and a plurality of projections (204;204A;204B) arranged longitudinally along and projecting vertically out from the base; providing a plurality of second mandrels; providing a plurality of first ribbon plies (276;276A), each of the first ribbon plies (276;276A) comprising a sheet of fibrous material; arranging each of the first ribbon plies (276;276A) with a respective one of the first mandrels, the arranging of each of the first ribbon plies (276;276A) comprising substantially covering each surface (222;224;226) of each of the projections (204;204A;204B) of one of the first mandrels with a respective one of the first ribbon plies (276;276A); mating each of the second mandrels with a respective one of the first mandrels such that each of the first ribbon plies (276;276A) is sandwiched between a respective one of the first mandrels and a respective one of the second mandrels; and curing resin disposed with the first ribbon plies (276;276A) to consolidate the first ribbon plies (276;276A) together and form a fiber-reinforced composite core structure of an acoustic panel. providing a plurality of first mandrels, each of the first mandrels comprising a base and a plurality of projections (204;204A;204B) arranged longitudinally along and projecting vertically out from the base; providing a plurality of second mandrels; providing a plurality of first ribbon plies (276;276A), each of the first ribbon plies (276;276A) comprising a sheet of fibrous material; arranging each of the first ribbon plies (276;276A) with a respective one of the first mandrels, the arranging of each of the first ribbon plies (276;276A) comprising substantially covering each surface (222;224;226) of each of the projections (204;204A;204B) of one of the first mandrels with a respective one of the first ribbon plies (276;276A); mating each of the second mandrels with a respective one of the first mandrels such that each of the first ribbon plies (276;276A) is sandwiched between a respective one of the first mandrels and a respective one of the second mandrels; and curing resin disposed with the first ribbon plies (276;276A) to consolidate the first ribbon plies (276;276A) together and form a fiber-reinforced composite core structure of an acoustic panel.
Method for operating an assistance system for automated driving operation of a vehicle, which is guided along a determined standard trajectory in a longitudinally and transversely controlled manner, wherein an emergency trajectory is continuously determined, along which the vehicle is brought to a standstill in a longitudinally and transversely controlled manner after activation of an emergency operation of the vehicle, wherein, in the case of a lane change of the vehicle from a starting lane to a target lane, which change is imminent or already initiated according to the determined standard trajectory, it is decided whether the vehicle is to be brought to a standstill in the starting lane or in the target lane upon activation of the emergency operation, depending on a position of the vehicle on the determined standard trajectory, and wherein the vehicle is then brought to a standstill in the starting lane if an emergency trajectory is planned, by means of which the vehicle is brought to a standstill in the starting lane within a predetermined travel distance and/or within a predetermined period of time, and if a predetermined comfort value of a transverse acceleration acting on the vehicle and a predetermined penetration depth of the vehicle into the target lane are not exceeded. wherein, in the case of a lane change of the vehicle from a starting lane to a target lane, which change is imminent or already initiated according to the determined standard trajectory, it is decided whether the vehicle is to be brought to a standstill in the starting lane or in the target lane upon activation of the emergency operation, depending on a position of the vehicle on the determined standard trajectory, and wherein the vehicle is then brought to a standstill in the starting lane if an emergency trajectory is planned, by means of which the vehicle is brought to a standstill in the starting lane within a predetermined travel distance and/or within a predetermined period of time, and if a predetermined comfort value of a transverse acceleration acting on the vehicle and a predetermined penetration depth of the vehicle into the target lane are not exceeded.
A microfluidic device for full blood count, the microfluidic device comprising: - a first measurement channel, - a second measurement channel separated from the first measurement channel, - a first inlet for providing a whole blood sample to the first and second measurement channel (11, 12), - a second inlet for providing a lysis agent for white blood cell count in to the first channel, - a third inlet for providing a quench solution to the first channel, and - a fourth inlet for providing a lysis agent for hemoglobin measurement to the second channel, - a first micro fluidic snake stage between the second inlet and the third inlet, designed such that the lysis agent can mix by diffusion with the whole blood sample over the first micro fluidic snake stage length such that all red blood cells present in the whole blood sample are lysed, - a second micro fluidic snake stage downstream of the first micro fluidic snake stage and between the third inlet and means for determining white blood cell differential count at the end of the first channel, wherein the second micro fluidic snake stage is designed to mix the lysate resulting from the first micro fluidic snake stage with the quench solution. - a first measurement channel, - a second measurement channel separated from the first measurement channel, - a first inlet for providing a whole blood sample to the first and second measurement channel (11, 12), - a second inlet for providing a lysis agent for white blood cell count in to the first channel, - a third inlet for providing a quench solution to the first channel, and - a fourth inlet for providing a lysis agent for hemoglobin measurement to the second channel, - a first micro fluidic snake stage between the second inlet and the third inlet, designed such that the lysis agent can mix by diffusion with the whole blood sample over the first micro fluidic snake stage length such that all red blood cells present in the whole blood sample are lysed, - a second micro fluidic snake stage downstream of the first micro fluidic snake stage and between the third inlet and means for determining white blood cell differential count at the end of the first channel, wherein the second micro fluidic snake stage is designed to mix the lysate resulting from the first micro fluidic snake stage with the quench solution.
A rechargeable battery comprising: an electrode assembly comprising a first electrode, a second electrode, and a separator between the first electrode and the second electrode; a case connected to the first electrode and accommodating the electrode assembly, the case comprising an opening to receive the electrode assembly; a cap plate bonded to the case to cover an outer region of the opening and comprising a through-hole to expose a center region of the opening; a terminal plate bonded to and insulated from the cap plate, covering the through-hole, and connected to the second electrode; and a terminal plating layer coated on an upper surface of the terminal plate, wherein a thickness of a center portion of the terminal plating layer overlapping the through-hole is thicker than a thickness of an outer portion of the terminal plating layer overlapping the upper surface of the terminal plate. an electrode assembly comprising a first electrode, a second electrode, and a separator between the first electrode and the second electrode; a case connected to the first electrode and accommodating the electrode assembly, the case comprising an opening to receive the electrode assembly; a cap plate bonded to the case to cover an outer region of the opening and comprising a through-hole to expose a center region of the opening; a terminal plate bonded to and insulated from the cap plate, covering the through-hole, and connected to the second electrode; and a terminal plating layer coated on an upper surface of the terminal plate, wherein a thickness of a center portion of the terminal plating layer overlapping the through-hole is thicker than a thickness of an outer portion of the terminal plating layer overlapping the upper surface of the terminal plate.
Process for preparing aluminium oxide calcinates, characterized by the following steps: - provision of an aluminium oxide-containing concentrate of a treated aluminium salt slag as starting material, and - calcination of the aluminium oxide-containing starting material in a tiltable rotary drum furnace to give a partially or completely calcined material, whereby the aluminium oxide-containing starting material is introduced into the tiltable rotary drum furnace which has been preheated to from 400°C to 850°C and is subsequently heated to from 500°C to 1100°C, - and whereby the aluminium oxide-containing starting material is dewatered and dried to a level of from 5% by weight to 15% by weight before the calcination. - provision of an aluminium oxide-containing concentrate of a treated aluminium salt slag as starting material, and - calcination of the aluminium oxide-containing starting material in a tiltable rotary drum furnace to give a partially or completely calcined material, whereby the aluminium oxide-containing starting material is introduced into the tiltable rotary drum furnace which has been preheated to from 400°C to 850°C and is subsequently heated to from 500°C to 1100°C, - and whereby the aluminium oxide-containing starting material is dewatered and dried to a level of from 5% by weight to 15% by weight before the calcination.
A blowback type firearm with bolt assembly, the firearm comprising: a longitudinal axis; a receiver defining a longitudinally-extending cavity; a barrel supported by the receiver; a bolt slideably mounted in the receiver for reciprocating movement between a forward closed breech position in battery with the barrel and a rearward open breech position; a dead blow weight assembly slideably mounted to the bolt, the dead blow weight assembly moveable relative to the bolt between a forward position and rearward position; wherein the dead blow weight assembly comprises: a dead blow weight slideably mounted to the bolt; characterised in that the dead blow weight assembly furthermore comprises: an axially elongated dead blow top member slideably mounted on top of the bolt and operably engageable with the dead blow weight, the dead blow top member axially movable forward and rearward relative to both the dead blow weight and bolt; a return spring acting on the dead blow top member, the return spring biasing the dead blow top member forward which in turn biases the dead blow weight towards the forward position, the dead blow weight in turn acting on and biasing the bolt towards the closed breech position. a longitudinal axis; a receiver defining a longitudinally-extending cavity; a barrel supported by the receiver; a bolt slideably mounted in the receiver for reciprocating movement between a forward closed breech position in battery with the barrel and a rearward open breech position; a dead blow weight assembly slideably mounted to the bolt, the dead blow weight assembly moveable relative to the bolt between a forward position and rearward position; wherein the dead blow weight assembly comprises: a dead blow weight slideably mounted to the bolt; characterised in that the dead blow weight assembly furthermore comprises: an axially elongated dead blow top member slideably mounted on top of the bolt and operably engageable with the dead blow weight, the dead blow top member axially movable forward and rearward relative to both the dead blow weight and bolt; a return spring acting on the dead blow top member, the return spring biasing the dead blow top member forward which in turn biases the dead blow weight towards the forward position, the dead blow weight in turn acting on and biasing the bolt towards the closed breech position. an axially elongated dead blow top member slideably mounted on top of the bolt and operably engageable with the dead blow weight, the dead blow top member axially movable forward and rearward relative to both the dead blow weight and bolt; a return spring acting on the dead blow top member, the return spring biasing the dead blow top member forward which in turn biases the dead blow weight towards the forward position, the dead blow weight in turn acting on and biasing the bolt towards the closed breech position.
Animal identification system, comprising an animal identification device and an animal tissue sample-taking member, said animal identification device comprising a male part comprising a shaft (12; 42) extending from a base (11; 41) and ending in a locking head (122; 422) designed to be inserted into a female part to fixedly attach said identification device to an animal, said shaft being traversed by a longitudinal channel enabling the passage of said animal tissue sample-taking member, characterized in that the body of said shaft is made out of a material that is at least partially deformable, in that said shaft (12; 42) comprises stiffening means comprising at least one abutment element (13; 43) protruding into said channel, located between the middle of said shaft and the distal extremity (124; 424) of said head, and in that said sample-taking member comprises at least one bearing element (24; 374; 474; 575), complementary to said at least one abutment element (13; 43) of said male part, said at least one abutment element defining a bearing area on which said at least one bearing element of said sample-taking member can take support when a sample of animal tissue is being taken, the distance between said at least one bearing element and the distal sample-taking extremity of said sample-taking member being defined so that said distal sample-taking extremity projects beyond said shaft of the male part when said at least one bearing element takes support against said at least one abutment element.
A procatalyst composition comprising: a combination of a magnesium moiety, a titanium moiety, and an internal electron donor, the internal electron donor comprising a silyl ester wherein the silyl ester has the structure wherein m is an integer from 1 to 5 denoting a hydrocarbyl with the same number of carbon atoms, n is an integer from 1 to 5 denoting a hydrocarbyl with the same number of carbon atoms, R 1 -R 7 are the same or different and each is selected from the group consisting of hydrogen, a substituted hydrocarbyl group having 1 to 20 carbon atoms, an unsubstituted hydrocarbyl group having 1 to 20 carbon atoms, and combinations thereof, and X is an electron donating group. a combination of a magnesium moiety, a titanium moiety, and an internal electron donor, the internal electron donor comprising a silyl ester wherein the silyl ester has the structure wherein m is an integer from 1 to 5 denoting a hydrocarbyl with the same number of carbon atoms, n is an integer from 1 to 5 denoting a hydrocarbyl with the same number of carbon atoms, R 1 -R 7 are the same or different and each is selected from the group consisting of hydrogen, a substituted hydrocarbyl group having 1 to 20 carbon atoms, an unsubstituted hydrocarbyl group having 1 to 20 carbon atoms, and combinations thereof, and X is an electron donating group.
Coating made from elements which are able to be connected to one another mechanically, having the following features: a. the elements (1, 2) have corresponding profiling on their sides (6, 31) to be connected to one another, via which profiling adjacent elements (1, 2) are able to be locked to one another during assembly; b. the locking is caused by at least one spring element, which is hinged on one of the elements and which is able to be swivelled behind a locking edge of a groove of the adjacent element during the joining movement; c. before the joining movement, the spring element is an integral component of the element, wherein the integral connection between the spring element and the element is configured as a predetermined breaking point which is provided to break during swivelling of the spring element; d. the spring element is additionally connected to the element in regions via an elastic material, characterised in that e. means for positive and/or frictional interlocking of the spring element in its end position are arranged on the spring element, wherein the interlocking occurs opposite the element to which the spring element is fastened, f. wherein the means for interlocking are formed at least partially as a male piece for engaging with a receiver formed as a female piece on the element and/or at least partially as a female piece for receiving a protrusion formed as a male piece on the element. a. the elements (1, 2) have corresponding profiling on their sides (6, 31) to be connected to one another, via which profiling adjacent elements (1, 2) are able to be locked to one another during assembly; b. the locking is caused by at least one spring element, which is hinged on one of the elements and which is able to be swivelled behind a locking edge of a groove of the adjacent element during the joining movement; c. before the joining movement, the spring element is an integral component of the element, wherein the integral connection between the spring element and the element is configured as a predetermined breaking point which is provided to break during swivelling of the spring element; d. the spring element is additionally connected to the element in regions via an elastic material, characterised in that e. means for positive and/or frictional interlocking of the spring element in its end position are arranged on the spring element, wherein the interlocking occurs opposite the element to which the spring element is fastened, f. wherein the means for interlocking are formed at least partially as a male piece for engaging with a receiver formed as a female piece on the element and/or at least partially as a female piece for receiving a protrusion formed as a male piece on the element.
Apparatus including a safety circuit arrangement for electronically interconnecting first electronic circuitry in a hazardous environment with second electronic circuitry whilst partitioning the second electronic circuitry from the hazardous environment, the apparatus comprising: a) a body defining a passage which opens at one end into the hazardous environment, the passage comprising a stepped bore defined in the body, the stepped bore having adjacent first and second portions, the first portion having a larger diameter than the second portion and the body defining a shoulder at the intersection of the first and second portions of the bore which shoulder is directed away from said one end of the passage; b) a PCB mounted to the shoulder in the first portion of the bore so as to extend across and close the passage, a seal being provided between the PCB and the shoulder and the PCB being encased within a layer of insulating material on the side of the PCB facing away from said one end of the passage, the PCB and insulating layer forming a gas tight barrier across the passage; c) the PCB having at least one first connector connected with said first electronic circuity located in the hazardous environment and at least one second connector extending through the layer of insulating material and connected with said second electronic circuitry; d) the at least one first connector and the at least one second connector being electronically coupled such that the first electronic circuitry is electronically connected with the second electronic circuity through the PCB and insulating layer. a) a body defining a passage which opens at one end into the hazardous environment, the passage comprising a stepped bore defined in the body, the stepped bore having adjacent first and second portions, the first portion having a larger diameter than the second portion and the body defining a shoulder at the intersection of the first and second portions of the bore which shoulder is directed away from said one end of the passage; b) a PCB mounted to the shoulder in the first portion of the bore so as to extend across and close the passage, a seal being provided between the PCB and the shoulder and the PCB being encased within a layer of insulating material on the side of the PCB facing away from said one end of the passage, the PCB and insulating layer forming a gas tight barrier across the passage; c) the PCB having at least one first connector connected with said first electronic circuity located in the hazardous environment and at least one second connector extending through the layer of insulating material and connected with said second electronic circuitry; d) the at least one first connector and the at least one second connector being electronically coupled such that the first electronic circuitry is electronically connected with the second electronic circuity through the PCB and insulating layer.