mhurhangee/patent-ind-claim-en huggingface dataset:
A medication mixing and delivery device comprising: a housing; a first chamber located within the housing, the first chamber having an outlet; a second chamber located within the housing, the second chamber having an inlet; a rotary valve located within the housing, the rotary valve being selectively opened or closed by aligning or misaligning the outlet of the first chamber to cause or prevent fluid communication between the outlet of the first chamber and the inlet of the second chamber; characterized in that it further comprises an actuation device having a pre-loaded energy source , the actuation device also being in mechanical communication with the rotary valve and is configured to allow the rotary valve to alternate between a closed and open state; a displacement mechanism configured to reduce the effective volume of the first chamber; a delivery assembly configured to be in fluid communication with the second chamber; and wherein the actuation device is activatable by means of an axial torsional force, which axial torsional force, when applied causes the rotary valve to be placed into the open state and to cause a first portion of energy stored within the pre-loaded energy source to be released to cause the displacement mechanism to force a liquid stored in the first chamber to pass through the outlet and inlet to be received by the second chamber. a housing; a first chamber located within the housing, the first chamber having an outlet; a second chamber located within the housing, the second chamber having an inlet; a rotary valve located within the housing, the rotary valve being selectively opened or closed by aligning or misaligning the outlet of the first chamber to cause or prevent fluid communication between the outlet of the first chamber and the inlet of the second chamber; characterized in that it further comprises an actuation device having a pre-loaded energy source , the actuation device also being in mechanical communication with the rotary valve and is configured to allow the rotary valve to alternate between a closed and open state; a displacement mechanism configured to reduce the effective volume of the first chamber; a delivery assembly configured to be in fluid communication with the second chamber; and wherein the actuation device is activatable by means of an axial torsional force, which axial torsional force, when applied causes the rotary valve to be placed into the open state and to cause a first portion of energy stored within the pre-loaded energy source to be released to cause the displacement mechanism to force a liquid stored in the first chamber to pass through the outlet and inlet to be received by the second chamber.
Central supply system with a plurality of safety, escape sign or emergency luminaires which are connected via at least one luminaire supply line to a voltage supply device switchable between mains voltage supply and emergency voltage supply and supplying at least one group of luminaires as part of the plurality of luminaires , characterised in that the voltage supply device has a dimming control for the group of luminaires , the dimming control being connected between the luminaire supply line and a voltage switchover device of the voltage supply device for switching between mains and emergency voltage supply .
A tablet comprising a drug which is N-{3-[3-cyclopropyl-5-(2-fluoro-4-iodo-phenylamino)-6,8-dimethyl-2,4,7-trioxo-3,4,6,7-tetrahydro-2H-pyrido[4,3-d]pyrimidin-1-yl]phenyl}acetamide dimethyl sulfoxide solvate, wherein the tablet is coated with a film coat containing a colored pigment, or wherein the tablet is an uncoated tablet, a wax coated tablet, or a white coated tablet placed in a protective light resistant blister pack or in a light resistant bottle.
A method for indicating a Channel State Information Reference Signal, CSI-RS, resource, comprising: configuring , by an evolved Node B, eNB, one or more CSI-RS resources for a plurality of User Equipments, UEs, within a cell covered by the eNB; and indicating a CSI-RS resource that can be used by at least one of the plurality of UEs and pertains to the one or more CSI-RS resources, wherein the CSI-RS resource comprises the following resources: CSI Process, or Non-Zero Power, NZP, CSI-RS resource, or CSI-RS port(s), wherein when each of the one or more CSI-RS resources is a CSI Process, the one or more CSI-RS resources are configured for the plurality of UEs by the eNB in the following manners: performing set partitioning on the plurality of UEs to obtain one or more UE sets, and configuring a CSI Process Group containing one or more CSI Processes for each UE set, wherein when a plurality of CSI Process Groups are configured for the plurality of UEs, CSI Processes contained in any two of the plurality of configured CSI Process Groups are partially the same or totally different. configuring , by an evolved Node B, eNB, one or more CSI-RS resources for a plurality of User Equipments, UEs, within a cell covered by the eNB; and indicating a CSI-RS resource that can be used by at least one of the plurality of UEs and pertains to the one or more CSI-RS resources, wherein the CSI-RS resource comprises the following resources: CSI Process, or Non-Zero Power, NZP, CSI-RS resource, or CSI-RS port(s), wherein when each of the one or more CSI-RS resources is a CSI Process, the one or more CSI-RS resources are configured for the plurality of UEs by the eNB in the following manners: performing set partitioning on the plurality of UEs to obtain one or more UE sets, and configuring a CSI Process Group containing one or more CSI Processes for each UE set, wherein when a plurality of CSI Process Groups are configured for the plurality of UEs, CSI Processes contained in any two of the plurality of configured CSI Process Groups are partially the same or totally different. CSI Process, or Non-Zero Power, NZP, CSI-RS resource, or CSI-RS port(s), wherein when each of the one or more CSI-RS resources is a CSI Process, the one or more CSI-RS resources are configured for the plurality of UEs by the eNB in the following manners: performing set partitioning on the plurality of UEs to obtain one or more UE sets, and configuring a CSI Process Group containing one or more CSI Processes for each UE set, wherein when a plurality of CSI Process Groups are configured for the plurality of UEs, CSI Processes contained in any two of the plurality of configured CSI Process Groups are partially the same or totally different. performing set partitioning on the plurality of UEs to obtain one or more UE sets, and configuring a CSI Process Group containing one or more CSI Processes for each UE set, wherein when a plurality of CSI Process Groups are configured for the plurality of UEs, CSI Processes contained in any two of the plurality of configured CSI Process Groups are partially the same or totally different.
Apparatus for use with a tube for carrying blood, the apparatus comprising: a chamber shaped to define a fluid port ; a first appendage protruding, from the chamber , beyond the fluid port and shaped to define a first aperture and a first row of one or more teeth ; and a second appendage protruding, from the chamber , beyond the fluid port and shaped to define a second aperture and a second row of one or more teeth parallel to the first row of teeth , the fluid port being configured to couple to the tube while the tube passes through the first aperture and second aperture , such that the tube carries the blood to or from the fluid port through the first aperture and second aperture , and the second row being configured to interlock with the first row at multiple different relative positions of the first appendage and second appendage in which the second aperture is aligned with the first aperture with different respective degrees of alignment, such that the tube is constricted with different respective degrees of constriction. a chamber shaped to define a fluid port ; a first appendage protruding, from the chamber , beyond the fluid port and shaped to define a first aperture and a first row of one or more teeth ; and a second appendage protruding, from the chamber , beyond the fluid port and shaped to define a second aperture and a second row of one or more teeth parallel to the first row of teeth , the fluid port being configured to couple to the tube while the tube passes through the first aperture and second aperture , such that the tube carries the blood to or from the fluid port through the first aperture and second aperture , and the second row being configured to interlock with the first row at multiple different relative positions of the first appendage and second appendage in which the second aperture is aligned with the first aperture with different respective degrees of alignment, such that the tube is constricted with different respective degrees of constriction. the fluid port being configured to couple to the tube while the tube passes through the first aperture and second aperture , such that the tube carries the blood to or from the fluid port through the first aperture and second aperture , and the second row being configured to interlock with the first row at multiple different relative positions of the first appendage and second appendage in which the second aperture is aligned with the first aperture with different respective degrees of alignment, such that the tube is constricted with different respective degrees of constriction.
Power plant having a compressor , a combustion chamber and a turbine , further comprising a compressor air line which connects the compressor to the combustion chamber , a first heat exchanger which is connected into the compressor air line , and a first expander which is arranged in the compressor air line between the first heat exchanger and the combustion chamber , characterized in that the first heat exchanger is further connected into an exhaust line which branches from the turbine , and in that the first expander and the compressor are arranged on a common shaft.
An aqueous herbicidal concentrate composition comprising: (a) at least one particulate microencapsulated acetamide herbicide dispersed in an aqueous liquid medium comprising a water-immiscible core material comprising the acetamide herbicide and a polyurea shell wall containing the core material, wherein the acetamide herbicide concentration in the composition on an active ingredient basis is at least 10 wt.%, and (b) an alkali metal salt of an auxin co-herbicide dissolved in the aqueous liquid medium, wherein the auxin co-herbicide concentration in the composition on an acid equivalent basis is at least 1 wt.%. (a) at least one particulate microencapsulated acetamide herbicide dispersed in an aqueous liquid medium comprising a water-immiscible core material comprising the acetamide herbicide and a polyurea shell wall containing the core material, wherein the acetamide herbicide concentration in the composition on an active ingredient basis is at least 10 wt.%, and (b) an alkali metal salt of an auxin co-herbicide dissolved in the aqueous liquid medium, wherein the auxin co-herbicide concentration in the composition on an acid equivalent basis is at least 1 wt.%.
A battery module , comprising: a battery unit, wherein the battery unit comprises n first-type battery cells and m second-type battery cells , n ≥ 1, m ≥ 1, and the n first-type battery cells and the m second-type battery cells are arranged and satisfy: VED 1 > VED 2 , Δ F 1 > Δ F 2 , Δ F 1 × n + Δ F 2 × m / n + m ≤ 0.8 × Δ F 1 , where VED 1 represents a volumetric energy density of the first-type battery cell , in Wh/L, VED 2 represents a volumetric energy density of the second-type battery cell , in Wh/L, ΔF 1 represents an expansion force change rate of the first-type battery cell , in Newton/cycle, and ΔF 2 represents an expansion force change rate of the second-type battery cell , in Newton/cycle, the expansion force change rate is an average expansion force change ΔF/500 after 500 cycles of charging and discharging of a battery cell at 25°C and 0.33 C 0 rate (C 0 represents a nominal capacity of the battery cell) within an upper cut-off voltage and lower cut-off voltage range of the battery cell, as determined according to the description and the ΔF is a change value of pressure of the battery cell detected by a sensor of a detection device at the 500th cycle and at the beginning; wherein, the n first-type battery cells and the m second-type battery cells are electrically connected, and the electrical connection comprises at least a series connection. a battery unit, wherein the battery unit comprises n first-type battery cells and m second-type battery cells , n ≥ 1, m ≥ 1, and the n first-type battery cells and the m second-type battery cells are arranged and satisfy: VED 1 > VED 2 , Δ F 1 > Δ F 2 , Δ F 1 × n + Δ F 2 × m / n + m ≤ 0.8 × Δ F 1 , where VED 1 represents a volumetric energy density of the first-type battery cell , in Wh/L, VED 2 represents a volumetric energy density of the second-type battery cell , in Wh/L, ΔF 1 represents an expansion force change rate of the first-type battery cell , in Newton/cycle, and ΔF 2 represents an expansion force change rate of the second-type battery cell , in Newton/cycle, the expansion force change rate is an average expansion force change ΔF/500 after 500 cycles of charging and discharging of a battery cell at 25°C and 0.33 C 0 rate (C 0 represents a nominal capacity of the battery cell) within an upper cut-off voltage and lower cut-off voltage range of the battery cell, as determined according to the description and the ΔF is a change value of pressure of the battery cell detected by a sensor of a detection device at the 500th cycle and at the beginning; wherein, the n first-type battery cells and the m second-type battery cells are electrically connected, and the electrical connection comprises at least a series connection.
A seeding implement comprising: a bracket for mounting the seeding implement to a frame ; a support arm pivotally connected to the bracket and having a support arm first portion (20-1) and a support arm second portion (20-2) branched from the support arm first portion (20-1); a furrow disc connected to the support arm first portion (20-1); a force device pivotally connected to the bracket and connected to the support arm second portion (20-2) to apply and/or reduce a force between the frame and the furrow disc ; an implement support arm (50;60) pivotally connected to the support arm second portion (20-2) at a first pivot at a first end of the implement support arm (50;60), and an implement (51;61) connected to the implement support arm (50;60) at a second end of the implement support arm (50;60), wherein the implement is a firming implement or a closing wheel ; characterized in that the seeding implement further comprises an implement force actuator (55;65) pivotally connected to the support arm second portion (20-2) at a first end of the implement force actuator (55;65) and connected to the implement support arm (50;60) at the second end of the implement force actuator (55;65), wherein the implement force actuator (55;65) is selected from the group consisting of a hydraulic cylinder, a pneumatic cylinder, and an electrically driven linkage. a bracket for mounting the seeding implement to a frame ; a support arm pivotally connected to the bracket and having a support arm first portion (20-1) and a support arm second portion (20-2) branched from the support arm first portion (20-1); a furrow disc connected to the support arm first portion (20-1); a force device pivotally connected to the bracket and connected to the support arm second portion (20-2) to apply and/or reduce a force between the frame and the furrow disc ; an implement support arm (50;60) pivotally connected to the support arm second portion (20-2) at a first pivot at a first end of the implement support arm (50;60), and an implement (51;61) connected to the implement support arm (50;60) at a second end of the implement support arm (50;60), wherein the implement is a firming implement or a closing wheel ; characterized in that the seeding implement further comprises an implement force actuator (55;65) pivotally connected to the support arm second portion (20-2) at a first end of the implement force actuator (55;65) and connected to the implement support arm (50;60) at the second end of the implement force actuator (55;65), wherein the implement force actuator (55;65) is selected from the group consisting of a hydraulic cylinder, a pneumatic cylinder, and an electrically driven linkage.
A modified T cell comprising: a nucleic acid capable of downregulating gene expression of an endogenous TCR α chain, wherein the nucleic acid comprises a CRISPR system comprising a gRNA encoded by SEQ ID NO: 1; a nucleic acid capable of downregulating gene expression of an endogenous TCR β chain, wherein the nucleic acid comprises a CRISPR system; and a nucleic acid encoding a modified T cell receptor (TCR) comprising affinity for a surface antigen on a target cell. a nucleic acid capable of downregulating gene expression of an endogenous TCR α chain, wherein the nucleic acid comprises a CRISPR system comprising a gRNA encoded by SEQ ID NO: 1; a nucleic acid capable of downregulating gene expression of an endogenous TCR β chain, wherein the nucleic acid comprises a CRISPR system; and a nucleic acid encoding a modified T cell receptor (TCR) comprising affinity for a surface antigen on a target cell.
A protease comprising an amino acid sequence which is at least 90%, and, in order of increasing preference, at least 90.5%, 91%, 91.5%, 92%, 92.5%, 93%, 93.5%, 94%, 94.5%, 95%, 95.5%, 96%, 96.5%, 97%, 97.5%, 98%, 98.5% and 99%, identical to the amino acid sequence specified in SEQ ID NO. 1 over the entire length thereof and has, at position 97 in the numbering according to SEQ ID NO. 1, the amino acid D and/or, at position 99, the amino acid E, wherein the protease has improved cleaning performance in comparison with a protease according to SEQ ID NO. 1.
A main mixer , comprising: a swirler along an axis (X); and a swirler hub along the axis (X), the swirler hub having a fuel manifold and a centerbody , wherein the centerbody forms an inner surface of a contoured annular mixer passage , and an inner surface of the swirler forms an outer surface of the contoured annular mixer passage ; characterised in that : an outer surface of the centerbody of the swirler hub forms an elliptical shape and an inner diameter of the swirler forms an elliptical shape . a swirler along an axis (X); and a swirler hub along the axis (X), the swirler hub having a fuel manifold and a centerbody , wherein the centerbody forms an inner surface of a contoured annular mixer passage , and an inner surface of the swirler forms an outer surface of the contoured annular mixer passage ; characterised in that : an outer surface of the centerbody of the swirler hub forms an elliptical shape and an inner diameter of the swirler forms an elliptical shape .
Method for defining actuation time periods for an inverter having at least two half-bridges comprising at least two half-bridge switches which are connected to one another by means of a centre tap and the connections of which have a voltage applied to them in relation to the centre tap , wherein, in each half-bridge , a first of the half-bridge switches can be actuated with a first actuation time period of the actuation time periods and the second of the half-bridge switches can be actuated with a second actuation time period of the actuation time periods as part of a pulse-width modulation , comprising: - determining the actuation time periods for the two half-bridge switches of the two half-bridges during one period of the pulse-width modulation , and - changing the first actuation time period of the first half-bridge in relation to the second actuation time period in the first half-bridge when, within the period of the pulse-width modulation , the first actuation time period of the first half-bridge and the first actuation time period of the second half-bridge are congruent within a predetermined tolerance, characterized in that the first actuation time period of the first half-bridge for changing in relation to the second actuation time period of the first half-bridge is divided into at least three partial time periods which are arranged at time intervals in relation to one another within the period of the pulse-width modulation , wherein two partial time periods which are separated from the first actuation time period are shifted symmetrically in relation to a symmetry of the first actuation time period of the second half-bridge by a time difference at the beginning and the end of the period , and wherein the symmetry of the first actuation time period of the second half-bridge is arranged in a period centre of the period of the pulse-width modulation . - determining the actuation time periods for the two half-bridge switches of the two half-bridges during one period of the pulse-width modulation , and - changing the first actuation time period of the first half-bridge in relation to the second actuation time period in the first half-bridge when, within the period of the pulse-width modulation , the first actuation time period of the first half-bridge and the first actuation time period of the second half-bridge are congruent within a predetermined tolerance, characterized in that the first actuation time period of the first half-bridge for changing in relation to the second actuation time period of the first half-bridge is divided into at least three partial time periods which are arranged at time intervals in relation to one another within the period of the pulse-width modulation , wherein two partial time periods which are separated from the first actuation time period are shifted symmetrically in relation to a symmetry of the first actuation time period of the second half-bridge by a time difference at the beginning and the end of the period , and wherein the symmetry of the first actuation time period of the second half-bridge is arranged in a period centre of the period of the pulse-width modulation .
Method of handling laboratory sample containers , the method comprising the steps of: - moving a laboratory sample container to a target position (TP), wherein the target position (TP) is a position at which the laboratory sample container is inserted into a corresponding orifice of a laboratory sample container rack , provided that the laboratory sample container rack is placed at an intended position, wherein the laboratory sample container is prevented from moving vertically due to gravity if correctly inserted into the corresponding orifice of the laboratory sample container rack , - releasing the laboratory sample container in a vertical direction (z) such that the laboratory sample container can move in the vertical direction (z) due to gravity, wherein the method is characterized by the steps of - determining if the laboratory sample container moves in the vertical direction (z), and - performing an error procedure if it is determined that the laboratory sample container moves in the vertical direction (z). - moving a laboratory sample container to a target position (TP), wherein the target position (TP) is a position at which the laboratory sample container is inserted into a corresponding orifice of a laboratory sample container rack , provided that the laboratory sample container rack is placed at an intended position, wherein the laboratory sample container is prevented from moving vertically due to gravity if correctly inserted into the corresponding orifice of the laboratory sample container rack , - releasing the laboratory sample container in a vertical direction (z) such that the laboratory sample container can move in the vertical direction (z) due to gravity, wherein the method is characterized by the steps of - determining if the laboratory sample container moves in the vertical direction (z), and - performing an error procedure if it is determined that the laboratory sample container moves in the vertical direction (z).