mhurhangee/patent-ind-claim-en huggingface dataset:
A production method for producing transition metal composite hydroxide particles by a crystallization reaction to be a precursor for a cathode active material for a non-aqueous electrolyte rechargeable battery, comprising: a nucleation process for performing nucleation by controlling an aqueous solution for nucleation that includes a metal compound that includes at least a transition metal and an ammonium ion donor so that the pH value at a standard liquid temperature of 25°C becomes 12.0 to 14.0; and a particle growth process for causing nuclei to grow by controlling an aqueous solution for particle growth that includes the nuclei that were obtained in the nucleation process so that the pH value is less than in the nucleation process and is 10.5 to 12.0; characterized in that the reaction atmosphere in the nucleation process and at the beginning of the particle growth process is a non-oxidizing atmosphere in which an oxygen concentration is 5% by volume or less; and in the particle growth process, atmosphere control by which the reaction atmosphere is switched from the non-oxidizing atmosphere to an oxidizing atmosphere in which the oxygen concentration is greater than 5% by volume at timing from the start of the particle growth process within a range of 5% to 35% of the overall particle growth process time, and is then switched from the oxidizing atmosphere to the non-oxidizing atmosphere so that the crystallization time in the oxidizing atmosphere in the particle growth process is 3% to 20% of the overall particle growth process time is performed one time. a nucleation process for performing nucleation by controlling an aqueous solution for nucleation that includes a metal compound that includes at least a transition metal and an ammonium ion donor so that the pH value at a standard liquid temperature of 25°C becomes 12.0 to 14.0; and a particle growth process for causing nuclei to grow by controlling an aqueous solution for particle growth that includes the nuclei that were obtained in the nucleation process so that the pH value is less than in the nucleation process and is 10.5 to 12.0; characterized in that the reaction atmosphere in the nucleation process and at the beginning of the particle growth process is a non-oxidizing atmosphere in which an oxygen concentration is 5% by volume or less; and in the particle growth process, atmosphere control by which the reaction atmosphere is switched from the non-oxidizing atmosphere to an oxidizing atmosphere in which the oxygen concentration is greater than 5% by volume at timing from the start of the particle growth process within a range of 5% to 35% of the overall particle growth process time, and is then switched from the oxidizing atmosphere to the non-oxidizing atmosphere so that the crystallization time in the oxidizing atmosphere in the particle growth process is 3% to 20% of the overall particle growth process time is performed one time.
A front-illuminated type semiconductor light-detecting element comprising: a silicon substrate comprised of a semiconductor of a first conductivity type, having a first principal surface and a second principal surface opposed to each other, and having a semiconductor region of a second conductivity type formed in the first principal surface side, wherein in the silicon substrate, an accumulation layer of the first conductivity type having a higher impurity concentration than the silicon substrate is formed in the second principal surface side and an irregular asperity is formed in at least a region opposed to the semiconductor region of the second conductivity type in the second principal surface , wherein the region opposed to the semiconductor region of the second conductivity type in the second principal surface of the silicon substrate is optically exposed, and wherein the first principal surface constitutes a light incident surface and light incident from the light incident surface travels in the silicon substrate. a silicon substrate comprised of a semiconductor of a first conductivity type, having a first principal surface and a second principal surface opposed to each other, and having a semiconductor region of a second conductivity type formed in the first principal surface side, wherein in the silicon substrate, an accumulation layer of the first conductivity type having a higher impurity concentration than the silicon substrate is formed in the second principal surface side and an irregular asperity is formed in at least a region opposed to the semiconductor region of the second conductivity type in the second principal surface , wherein the region opposed to the semiconductor region of the second conductivity type in the second principal surface of the silicon substrate is optically exposed, and wherein the first principal surface constitutes a light incident surface and light incident from the light incident surface travels in the silicon substrate.
A method performed by a first user equipment for zooming within a video conferencing application that provides two-way video communication between the first user equipment and another, second user equipment , the method comprising: receiving information from the second user equipment , the information defining a user-defined region of interest within a field of view at the first user equipment ; capturing a video that includes the field of view at the first user equipment ; characterized by encoding the video corresponding to the defined region of interest only, wherein the defined region of interest is configured to be encoded with a negotiated resolution rather than a whole captured frame; and transmitting the encoded video corresponding to the defined region of interest only to the second user equipment . receiving information from the second user equipment , the information defining a user-defined region of interest within a field of view at the first user equipment ; capturing a video that includes the field of view at the first user equipment ; characterized by encoding the video corresponding to the defined region of interest only, wherein the defined region of interest is configured to be encoded with a negotiated resolution rather than a whole captured frame; and transmitting the encoded video corresponding to the defined region of interest only to the second user equipment .
Method for filling a container to be filled with a filling product, which is a beverage, in a beverage filling plant, with the steps: - pressure-tight connection of the container to be filled to a filling product line ; - determination the initial pressure (PAU) in the container to be filled ; - filling of the container to be filled with the filling product; and - ending of the filling of the container to be filled when a predetermined cut-off pressure (PAB) is reached in the container , wherein the container is evacuated before being filled with the filling product, and the filling product is supplied at the predetermined cut-off pressure (PAB) and the initial pressure (PAU) in the container to be filled is set on the basis of the cut-off pressure (PAB), so that with varying cut-off pressure (PAB) of the filling product a desired filling product volume is reached by varying the evacuation of the container . - pressure-tight connection of the container to be filled to a filling product line ; - determination the initial pressure (PAU) in the container to be filled ; - filling of the container to be filled with the filling product; and - ending of the filling of the container to be filled when a predetermined cut-off pressure (PAB) is reached in the container , wherein
A composition comprising an inorganic particulate mineral and an antimicrobial metal, wherein the antimicrobial metal is incorporated within the particles of the inorganic particulate mineral, wherein the particles of inorganic particulate mineral do not include silver nanoparticles embedded in their structure, wherein the size of the particles of antimicrobial metal within the particles of the inorganic particulate mineral is greater than 50 nm or greater than 100 nm, wherein the inorganic particulate mineral does not comprise pores in which the antimicrobial metal may be deposited, and wherein the inorganic particulate mineral is an alkali earth metal carbonate.
A tablet made from intragranular and extragranular components, wherein the intragranular components consist of 403.13 mg of (S)-ethyl 2-amino-3-(4-(2-amino-6-((R)-1-(4-chloro-2-(3-methyl-1H-pyrazol-1-yl)phenyl)-2,2,2-trifluoroethoxy)pyrimidin-4-yl)phenyl)propanoate hippurate, 164.50 mg of lactose anhydrous, 35.00 mg of hydroxyl propyl cellulose, 35.00 mg of croscarmellose sodium and 5.25 mg of magnesium stearate, and the extragranular components consist of 27.37 mg of lactose anhydrous, 21.00 mg of croscarmellose sodium, 3.50 mg of colloidal silicon dioxide and 5.25 mg of magnesium stearate.
Satellite module for attitude determination comprising: a polyhedral containment body configured to be mounted on a satellite and comprising at least one data acquisition board and a connection interface for allowing the data acquisition board to be in signal communication and electrical communication with the satellite ; at least one first-type sensor selected from a sun sensor, an earth sensor, a stellar sensor, a horizon sensor, in communication with the data acquisition board and at least one second-type sensor , different from the first type, selected from a sun sensor, an earth sensor, a stellar sensor, a horizon sensor, and in communication with the data acquisition board ; a third-type sensor , different from the first and second types , selected from a sun sensor, an earth sensor, a horizon sensor; wherein the connection interface is mounted on a first face of the polyhedral containment body , the first-type sensor is mounted on a second face of the polyhedral containment body , the second-type sensor is mounted on a third face of the polyhedral containment body , and the third-type sensor is mounted on a fourth face of the polyhedral containment body ; and wherein the first-type sensor , the second-type sensor and the third-type sensor are mounted on external surfaces of the containment body so that respective devices sensitive to a quantity to be measured face an environment outside the containment body . a polyhedral containment body configured to be mounted on a satellite and comprising at least one data acquisition board and a connection interface for allowing the data acquisition board to be in signal communication and electrical communication with the satellite ; at least one first-type sensor selected from a sun sensor, an earth sensor, a stellar sensor, a horizon sensor, in communication with the data acquisition board and at least one second-type sensor , different from the first type, selected from a sun sensor, an earth sensor, a stellar sensor, a horizon sensor, and in communication with the data acquisition board ; a third-type sensor , different from the first and second types , selected from a sun sensor, an earth sensor, a horizon sensor; wherein the connection interface is mounted on a first face of the polyhedral containment body , the first-type sensor is mounted on a second face of the polyhedral containment body , the second-type sensor is mounted on a third face of the polyhedral containment body , and the third-type sensor is mounted on a fourth face of the polyhedral containment body ; and wherein the first-type sensor , the second-type sensor and the third-type sensor are mounted on external surfaces of the containment body so that respective devices sensitive to a quantity to be measured face an environment outside the containment body .
An isolated mammalian antibody or antigen binding fragment thereof that binds canine Programmed Death Receptor 1 (canine PD-1) with specificity comprising three light chain complementary determining regions (CDRs): CDR light 1 (CDRL1), CDR light 2 (CDRL2), and CDR light 3 (CDRL3); and three heavy chain CDRs: CDR heavy 1 (CDRH1), CDR heavy 2 (CDRH2) and CDR heavy 3 (CDRH3): (a) wherein CDRL1 comprises the amino acid sequence of SEQ ID NO: 15; (b) wherein CDRL2 comprises the amino acid sequence of SEQ ID NO: 18; (c) wherein CDRL3 comprises the amino acid sequence of SEQ ID NO: 24; (d) wherein CDRH1 comprises the amino acid sequence of SEQ ID NO: 29; (e) wherein CDRH2 comprises the amino acid of SEQ ID NO: 33; (f) wherein CDRH3 comprises the amino acid sequence of SEQ ID NO: 38; wherein the mammalian antibody or antigen binding fragment thereof when bound to canine PD-1, binds to SEQ ID NO: 84; and wherein the antibody and antigen binding fragment thereof bind canine PD-1 and block the binding of canine PD-1 to canine Programmed Death Ligand 1 (PD-L1), wherein the mammalian antibody is a murine antibody; and wherein the heavy chain variable region is encoded by the nucleotide sequence of SEQ ID NO: 51 and the light chain variable region is encoded by the nucleotide sequence of SEQ ID NO: 53. (a) wherein CDRL1 comprises the amino acid sequence of SEQ ID NO: 15; (b) wherein CDRL2 comprises the amino acid sequence of SEQ ID NO: 18; (c) wherein CDRL3 comprises the amino acid sequence of SEQ ID NO: 24; (d) wherein CDRH1 comprises the amino acid sequence of SEQ ID NO: 29; (e) wherein CDRH2 comprises the amino acid of SEQ ID NO: 33; (f) wherein CDRH3 comprises the amino acid sequence of SEQ ID NO: 38;
A delivery device for delivering a detachable implantable device , comprising an elongated delivery member and a first engagement portion comprising two first proximal-facing surfaces (110p1, 110p2), two first distal-facing surfaces (110d1, 110d2), and a first lumen that is configured to accommodate an activation wire , wherein the delivery device and implantable device can be held in a coupled arrangement by insertion of the activation wire and released from one another by removal of the activation wire , wherein at least 50% of a surface area of the first proximal-facing surfaces (110p1, 110p2) is angled away from a proximal end of the first engagement portion , and wherein the first proximal-facing surfaces (110p1, 110p2) are between the two distal-facing surfaces (110d1, 110d2). wherein the delivery device and implantable device can be held in a coupled arrangement by insertion of the activation wire and released from one another by removal of the activation wire , wherein at least 50% of a surface area of the first proximal-facing surfaces (110p1, 110p2) is angled away from a proximal end of the first engagement portion , and wherein the first proximal-facing surfaces (110p1, 110p2) are between the two distal-facing surfaces (110d1, 110d2).
A test apparatus for performing corrosion testing, the test apparatus comprising: a test chamber filled with a test solution; a test sample located within the test chamber ; two or more iron saturation elements located within the test chamber to saturate the test solution with iron; at least one spacer separating at least one pair of iron saturation elements ; and a support structure arranged to support at least two iron saturation elements and at least one spacer to form an iron saturation module; wherein the support structure is arranged to support a variable number of iron saturation elements and spacers so as to adjust the ratio of the volume of the test solution to the surface area of the iron saturation elements and the test sample exposed to the test solution; and wherein each iron saturation element is shaped such that it has a predetermined surface area such that the ratio of the volume of the test solution to the surface area of the iron saturation elements and the test sample exposed to the test solution can be calculated. a test chamber filled with a test solution; a test sample located within the test chamber ; two or more iron saturation elements located within the test chamber to saturate the test solution with iron; at least one spacer separating at least one pair of iron saturation elements ; and a support structure arranged to support at least two iron saturation elements and at least one spacer to form an iron saturation module; wherein the support structure is arranged to support a variable number of iron saturation elements and spacers so as to adjust the ratio of the volume of the test solution to the surface area of the iron saturation elements and the test sample exposed to the test solution; and wherein each iron saturation element is shaped such that it has a predetermined surface area such that the ratio of the volume of the test solution to the surface area of the iron saturation elements and the test sample exposed to the test solution can be calculated.
An energy recovery device comprising: an engine comprising a plurality of elongated Shape Memory Alloy (SMA) elements fixed at a first end by a holder element and connected at a second end to a drive mechanism wherein the plurality of Shape Memory Alloy (SMAs) elements are arranged as a plurality of wires positioned substantially parallel with each other to define a core, and the Shape Memory Alloy (SMA) elements are positioned to form a gap between adjacent elements by positioning at least one spacer element to urge the wires away from each other wire characterized in that the outer perimeter of wires is secured utilising a bracket to provide an improved heat transfer from a fluid to each element in the core.
A secondary battery comprising: an electrode assembly having a structure in which a first electrode sheet and a second electrode sheet are stacked and wound with a separation sheet interposed therebetween, wherein a first electrode tab protrudesfrom the first electrode sheet , and a second electrode tab protrudes from the second electrode sheet ; a battery can configured to accommodate the electrode assembly ; and a connection part provided above or below the electrode assembly to face the electrode assembly , characerized in that the connection part comprises: a first area which is made of a gel material having electrical conductivity; and a second area which is attached to the first area and made of a material having electrical insulation, wherein the second area forms at least a portion of a top surface of the connection part , and at least a portion of the first electrode tab or the second electrode tab is inserted into the first area of the connection part , wherein the first area made of a gel material comprises an organic conductor and a hardening agent, and the first electrode tab or the second electrode tab is fixed to the first area which is hardened by the hardening agent. an electrode assembly having a structure in which a first electrode sheet and a second electrode sheet are stacked and wound with a separation sheet interposed therebetween, wherein a first electrode tab protrudesfrom the first electrode sheet , and a second electrode tab protrudes from the second electrode sheet ; a battery can configured to accommodate the electrode assembly ; and a connection part provided above or below the electrode assembly to face the electrode assembly , characerized in that the connection part comprises: a first area which is made of a gel material having electrical conductivity; and a second area which is attached to the first area and made of a material having electrical insulation, wherein the second area forms at least a portion of a top surface of the connection part , and at least a portion of the first electrode tab or the second electrode tab is inserted into the first area of the connection part , wherein the first area made of a gel material comprises an organic conductor and a hardening agent, and the first electrode tab or the second electrode tab is fixed to the first area which is hardened by the hardening agent. a first area which is made of a gel material having electrical conductivity; and a second area which is attached to the first area and made of a material having electrical insulation, wherein the second area forms at least a portion of a top surface of the connection part , and at least a portion of the first electrode tab or the second electrode tab is inserted into the first area of the connection part , wherein the first area made of a gel material comprises an organic conductor and a hardening agent, and the first electrode tab or the second electrode tab is fixed to the first area which is hardened by the hardening agent.
A data communication managing component (609. 700) configured to establish, in a data processing device configured to run multiple software applications and having a physical port to a communication network, an internal network of components of the data processing device to make, for each of the applications , data destined for the application received from the communication network via the physical port available for the application ; supply, to the physical port , for each of the applications , data that the application intends to send via the communication network; and enable communication between the applications through the internal network , generate a representation of the internal network as a network of data link layer interfaces in accordance with a data communication protocol for data communication with guaranteed performance, provide the generated representation to a network controller , wherein the network controller is configured to provide control information for data link layer interfaces to enable data communication in accordance with the data communication protocol; receive control information for the data link layer interfaces of the representation generated by the network controller ; and configure the internal network of the data processing device in accordance with the control information. establish, in a data processing device configured to run multiple software applications and having a physical port to a communication network, an internal network of components of the data processing device to make, for each of the applications , data destined for the application received from the communication network via the physical port available for the application ; supply, to the physical port , for each of the applications , data that the application intends to send via the communication network; and enable communication between the applications through the internal network , make, for each of the applications , data destined for the application received from the communication network via the physical port available for the application ; supply, to the physical port , for each of the applications , data that the application intends to send via the communication network; and enable communication between the applications through the internal network , generate a representation of the internal network as a network of data link layer interfaces in accordance with a data communication protocol for data communication with guaranteed performance, provide the generated representation to a network controller , wherein the network controller is configured to provide control information for data link layer interfaces to enable data communication in accordance with the data communication protocol; receive control information for the data link layer interfaces of the representation generated by the network controller ; and configure the internal network of the data processing device in accordance with the control information.
Hand-held polishing machine, comprising a drive motor , a drive motor shaft which is driven directly by the drive motor , a polishing tool shaft which is oriented transversely to the drive motor shaft , and a reduction gear which is coupled to the drive motor shaft and the polishing tool shaft and which is at least two-stage, the reduction gear comprising a planetary gear set as a reduction stage , characterized in that an axis of rotation of the drive motor shaft and a main axis of the planetary gear set are coaxial and in that a locking means acts on the planetary gear carrier for locking a rotatability of the polishing tool shaft .