mhurhangee/patent-ind-claim-en huggingface dataset:
An office chair seating arrangement comprising: a headrest assembly coupled to the seating arrangement , the headrest assembly comprising: a support arrangement pivotably coupled to a back assembly of the seating arrangement for pivoting movement about a first pivot axis where the back assembly is configured to support the back of a seated user; a headrest member pivotably coupled directly to the support arrangement for pivoting movement about a second pivot axis that is spaced from the first pivot axis ; and a sliding arrangement coupling the headrest member to the support arrangement , and configured to allow sliding vertical adjustment of the headrest member with respect to the support arrangement along an arcuate path, wherein: the seating arrangement further comprises: a seat assembly adapted to support a user; and the back assembly operably coupled to the seat assembly and adapted to support a user, where the support arrangement of the headrest assembly is pivotably coupled to the back assembly . a headrest assembly coupled to the seating arrangement , the headrest assembly comprising: a support arrangement pivotably coupled to a back assembly of the seating arrangement for pivoting movement about a first pivot axis where the back assembly is configured to support the back of a seated user; a headrest member pivotably coupled directly to the support arrangement for pivoting movement about a second pivot axis that is spaced from the first pivot axis ; and a sliding arrangement coupling the headrest member to the support arrangement , and configured to allow sliding vertical adjustment of the headrest member with respect to the support arrangement along an arcuate path, wherein: a support arrangement pivotably coupled to a back assembly of the seating arrangement for pivoting movement about a first pivot axis where the back assembly is configured to support the back of a seated user; a headrest member pivotably coupled directly to the support arrangement for pivoting movement about a second pivot axis that is spaced from the first pivot axis ; and a sliding arrangement coupling the headrest member to the support arrangement , and configured to allow sliding vertical adjustment of the headrest member with respect to the support arrangement along an arcuate path, wherein: the seating arrangement further comprises: a seat assembly adapted to support a user; and the back assembly operably coupled to the seat assembly and adapted to support a user, where the support arrangement of the headrest assembly is pivotably coupled to the back assembly . a seat assembly adapted to support a user; and the back assembly operably coupled to the seat assembly and adapted to support a user, where the support arrangement of the headrest assembly is pivotably coupled to the back assembly .
A cranial bone fixing device (A), comprising a lower fastening member and a movable retaining assembly ; the lower fastening member having a first base part , a threaded rod having an external thread; the movable retaining assembly comprising an upper fastening member and a nut , the upper fastening member has a second base part and a sleeve part , the sleeve part being an annular sleeve and having a cavity portion , the sleeve part having a pivot portion inside the sleeve part , the nut being received in the sleeve part , the nut having an internal thread to engage with the external thread of the threaded rod , an upper end of the nut having a first positioning portion , an outer surface of the nut being provided with a second pivot portion pivotally connected to the first pivot portion of the upper fastening member such that the nut and the upper fastening member collectively form the movable retaining assembly characterized in that the threaded rod of the lower fastening member has a first coupling portion disposed inside the threaded rod , and in that the cavity portion of the sleeve part has a bottom in which a through hole is formed, the first pivot portion being a recess which is formed by recessing an inner surface of the cavity portion , and the second pivot portion being an annular projection engaged in the recess of the first pivot portion , thereby pivotally combining together the upper fastening member and the nut as a single movable retaining assembly. the threaded rod of the lower fastening member has a first coupling portion disposed inside the threaded rod , and in that the cavity portion of the sleeve part has a bottom in which a through hole is formed, the first pivot portion being a recess which is formed by recessing an inner surface of the cavity portion , and the second pivot portion being an annular projection engaged in the recess of the first pivot portion , thereby pivotally combining together the upper fastening member and the nut as a single movable retaining assembly.
A system for estimating a thickness of heart tissue , the system comprising: a catheter , the catheter comprising: a distal tip configured to contact heart tissue; an ultrasonic transducer configured to produce ultrasonic waves; and a contact force sensor disposed at or near the distal tip; the system further comprising an interface, the interface being configured to receive multiple measurements from the catheter, each measurement indicating (i) a respective mechanical pressure applied to the heart tissue, and (ii) one or more round-trip propagation times of the ultrasound wave traversing the heart tissue in the presence of the respective mechanical pressure; and a processor , which is configured to select a set of the measurements, having mechanical pressures that fall in a specified partial subrange (62A to 62B) of mechanical-pressure values, and to estimate the thickness of the heart tissue based on the round-trip propagation times in the selected set of the measurements. a catheter , the catheter comprising: a distal tip configured to contact heart tissue; an ultrasonic transducer configured to produce ultrasonic waves; and a contact force sensor disposed at or near the distal tip; a distal tip configured to contact heart tissue; an ultrasonic transducer configured to produce ultrasonic waves; and a contact force sensor disposed at or near the distal tip; the system further comprising an interface, the interface being configured to receive multiple measurements from the catheter, each measurement indicating (i) a respective mechanical pressure applied to the heart tissue, and (ii) one or more round-trip propagation times of the ultrasound wave traversing the heart tissue in the presence of the respective mechanical pressure; and a processor , which is configured to select a set of the measurements, having mechanical pressures that fall in a specified partial subrange (62A to 62B) of mechanical-pressure values, and to estimate the thickness of the heart tissue based on the round-trip propagation times in the selected set of the measurements.
A luggage processing station for registering a piece of passenger's luggage for a trip, wherein the processing station comprises: an injector for receiving the piece of luggage associated with the passenger; a group of sensors comprising a first sensor associated with the injector, the group of sensors, in combination with at least the floor of the injector, creating a zone around the piece of luggage; and a controller associated with the group of sensors being adapted to: monitor, via the group of sensors, intrusions through the zone to determine one or more of whether a predetermined limit on dimensions of the piece of luggage has been exceeded or whether a foreign object has intruded the zone from outside, and allow further processing of the piece of luggage only if no intrusion of the zone is detected; characterized in that the controller is further adapted to dynamically adjust the three dimensional area of the zone to accommodate different sizes of luggage. an injector for receiving the piece of luggage associated with the passenger; a group of sensors comprising a first sensor associated with the injector, the group of sensors, in combination with at least the floor of the injector, creating a zone around the piece of luggage; and a controller associated with the group of sensors being adapted to: monitor, via the group of sensors, intrusions through the zone to determine one or more of whether a predetermined limit on dimensions of the piece of luggage has been exceeded or whether a foreign object has intruded the zone from outside, and allow further processing of the piece of luggage only if no intrusion of the zone is detected; characterized in that the controller is further adapted to dynamically adjust the three dimensional area of the zone to accommodate different sizes of luggage. monitor, via the group of sensors, intrusions through the zone to determine one or more of whether a predetermined limit on dimensions of the piece of luggage has been exceeded or whether a foreign object has intruded the zone from outside, and allow further processing of the piece of luggage only if no intrusion of the zone is detected; characterized in that the controller is further adapted to dynamically adjust the three dimensional area of the zone to accommodate different sizes of luggage.
An apparatus for analyzing a biological fluid consisting of at least one of whole blood, platelet rich plasma, and other blood products, said apparatus comprising: a reservoir for receiving said biological fluid; a first analysis instrument being fluidly connected to said reservoir for receiving a first flow of said biological fluid and operable to perform a measurement of a first property of said biological fluid under continuous flow thereof; a second analysis instrument being fluidly connected to said reservoir for receiving a second flow of said biological fluid and operable to perform a thermally controlled analysis of said biological sample, said second analysis instrument being a dynamic light scattering instrument and comprising a thermally controlled chamber which receives said biological fluid; a flow splitter for splitting a flow of biological fluid propagating from the reservoir into two flows corresponding to said first flow and said second flow ; a flow stopping device for stopping said second flow within said thermally controlled chamber to allow said second analysis instrument to perform said thermally controlled analysis of said biological fluid stagnant therein, when the flow stopping device is actuated the first flow continues flowing to the first analysis instrument ; and further comprising a control unit operatively connected to said flow stopping device and operative to control said flow stopping device . a reservoir for receiving said biological fluid; a first analysis instrument being fluidly connected to said reservoir for receiving a first flow of said biological fluid and operable to perform a measurement of a first property of said biological fluid under continuous flow thereof; a second analysis instrument being fluidly connected to said reservoir for receiving a second flow of said biological fluid and operable to perform a thermally controlled analysis of said biological sample, said second analysis instrument being a dynamic light scattering instrument and comprising a thermally controlled chamber which receives said biological fluid; a flow splitter for splitting a flow of biological fluid propagating from the reservoir into two flows corresponding to said first flow and said second flow ; a flow stopping device for stopping said second flow within said thermally controlled chamber to allow said second analysis instrument to perform said thermally controlled analysis of said biological fluid stagnant therein, when the flow stopping device is actuated the first flow continues flowing to the first analysis instrument ; and further comprising a control unit operatively connected to said flow stopping device and operative to control said flow stopping device .
A method of forming a AA6082 alloy blank or a 7xxx series alloy blank , wherein the method comprises the steps of: heating the blank to a solutionization (SHT) temperature (T SHT ) for the alloy of the blank at a heating station and keeping the blank at said SHT temperature until SHT is complete, cooling the blank at a cooling station to an intermediate temperature (T ITM ) and at a cooling rate that is high enough such that recrystallization in the alloy of the blank does not occur, wherein for a AA6082 alloy blank the intermediate temperature is between 300-350oC and the cooling rate is at least 30 K/s, and for a 7xxx series alloy blank the intermediate temperature is between 400-420oC and the cooling rate is at least 50 K/s, forming the blank in a forming tool , quenching the formed blank to room temperature (T E ), pre-ageing the formed and quenched blank in a pre-ageing station within one hour of the quenching of the formed blank for a AA6082 alloy blank and within 30 minutes of the quenching of the formed blank for a 7xxx series alloy blank, in which pre-ageing the formed and quenched blank is heated to an ageing temperature (T A ), kept at the ageing temperature during a time period, and cooled to room temperature. heating the blank to a solutionization (SHT) temperature (T SHT ) for the alloy of the blank at a heating station and keeping the blank at said SHT temperature until SHT is complete, cooling the blank at a cooling station to an intermediate temperature (T ITM ) and at a cooling rate that is high enough such that recrystallization in the alloy of the blank does not occur, wherein for a AA6082 alloy blank the intermediate temperature is between 300-350oC and the cooling rate is at least 30 K/s, and for a 7xxx series alloy blank the intermediate temperature is between 400-420oC and the cooling rate is at least 50 K/s, forming the blank in a forming tool , quenching the formed blank to room temperature (T E ), pre-ageing the formed and quenched blank in a pre-ageing station within one hour of the quenching of the formed blank for a AA6082 alloy blank and within 30 minutes of the quenching of the formed blank for a 7xxx series alloy blank, in which pre-ageing the formed and quenched blank is heated to an ageing temperature (T A ), kept at the ageing temperature during a time period, and cooled to room temperature.
A propulsion unit comprising a housing being supported with a support arm on a hull of a vessel, the housing having a first end (E1) and a second opposite end (E2) in a longitudinal direction of the housing , a propeller shaft extending in the longitudinal direction of the housing within the housing , the propeller shaft having an axis of rotation (X-X) and being rotatably supported within the housing with a first bearing and a second bearing , a propeller being attached to at least one end of the propeller shaft outside the housing , wherein the first bearing comprises a first radial bearing and a first thrust bearing , characterized in that the first radial bearing is a sliding bearing positioned axially (X-X) inside the first thrust bearing , the first bearing being positioned at the first end (E1) of the housing and the second bearing being positioned at the second end (E2) of the housing or vice a versa. a housing being supported with a support arm on a hull of a vessel, the housing having a first end (E1) and a second opposite end (E2) in a longitudinal direction of the housing , a propeller shaft extending in the longitudinal direction of the housing within the housing , the propeller shaft having an axis of rotation (X-X) and being rotatably supported within the housing with a first bearing and a second bearing , a propeller being attached to at least one end of the propeller shaft outside the housing , wherein the first bearing comprises a first radial bearing and a first thrust bearing , characterized in that the first radial bearing is a sliding bearing positioned axially (X-X) inside the first thrust bearing , the first bearing being positioned at the first end (E1) of the housing and the second bearing being positioned at the second end (E2) of the housing or vice a versa.
In vitro method for screening for subjects at risk of developing pancreatic cancer or intraductal papillary mucinous neoplasm of the pancreas (IPMN) comprising: (a) measuring the expression pattern or level of at least hsa-miR-33a* obtained from an isolated biological sample of the subjects to be screened; and (b) comparing said expression pattern or level of at least miR-33a* of the subjects to be screened with an already established expression pattern or level, wherein overexpression of at least hsa-miR-33a* is indicative of pancreatic cancer or intraductal papillary mucinous neoplasm of the pancreas (IPMN).
A laminate comprising: a crystal substrate; a middle layer formed on a main surface of the crystal substrate, the middle layer comprising a mixture of an amorphous region in an amorphous phase comprising a first metal oxide and a crystal region in a crystal phase having a corundum structure made of 50% or more of the first metal oxide; and a crystal layer formed on the middle layer and having a corundum structure made of 50% or more of a second metal oxide, wherein the middle layer further comprises silicon. a crystal substrate; a middle layer formed on a main surface of the crystal substrate, the middle layer comprising a mixture of an amorphous region in an amorphous phase comprising a first metal oxide and a crystal region in a crystal phase having a corundum structure made of 50% or more of the first metal oxide; and a crystal layer formed on the middle layer and having a corundum structure made of 50% or more of a second metal oxide, wherein the middle layer further comprises silicon.
A thermoformed plastic container comprising a secondary recess extending along the full circumference of the container externally to a sealing flange at the top of a side wall of the container, wherein the container is designed in such a way that, when two such containers are stacked on top of each other, the secondary recess of the uppermost of the two containers rests on the lowermost of the two containers, wherein the container further comprises one or more denesting features arranged on the secondary recess, characterized in that the one or more denesting features are designed in such a way that, when two such containers are stacked on top of each other, the secondary recess of the uppermost of the two containers rests on the denesting features of the lowermost of the two containers.
A resource use method of a node in a wireless communication system, the method comprising: receiving (S101) first allocation information related to communication with a parent node and second allocation information related to communication with a child node; and communicating (S102) with the parent node or the child node using a particular resource based on the first allocation information and the second allocation information, wherein the first allocation information informs a resource type of the particular resource as one of downlink, uplink, and flexible and the second allocation information informs the resource type of the particular resource as one of hard downlink, soft downlink, hard uplink, soft uplink, hard flexible, soft flexible, and not-available, and wherein based on the second allocation information informing the particular resource as the soft downlink, the soft uplink, or the soft flexible: i) based on explicit indication that the particular resource is available for the communication with the child node, the particular resource is used for the communication with the child node, and ii) based on no explicit indication that the particular resource is available for the communication with the child node, the particular resource is used for the communication with the parent node. receiving (S101) first allocation information related to communication with a parent node and second allocation information related to communication with a child node; and communicating (S102) with the parent node or the child node using a particular resource based on the first allocation information and the second allocation information, wherein the first allocation information informs a resource type of the particular resource as one of downlink, uplink, and flexible and the second allocation information informs the resource type of the particular resource as one of hard downlink, soft downlink, hard uplink, soft uplink, hard flexible, soft flexible, and not-available, and wherein based on the second allocation information informing the particular resource as the soft downlink, the soft uplink, or the soft flexible: i) based on explicit indication that the particular resource is available for the communication with the child node, the particular resource is used for the communication with the child node, and ii) based on no explicit indication that the particular resource is available for the communication with the child node, the particular resource is used for the communication with the parent node. i) based on explicit indication that the particular resource is available for the communication with the child node, the particular resource is used for the communication with the child node, and ii) based on no explicit indication that the particular resource is available for the communication with the child node, the particular resource is used for the communication with the parent node.
A method , comprising: copying , in a first stage using one or more processors , data from a given second tier memory address into an internal buffer of a storage controller , the copying at least partially occurring during mapping by an operating system of a specified physical address into an input/output memory management unit (IOMMU) ; determining , with the one or more processors , whether a second stage is triggered; and if the second stage is triggered, copying , with the one or more processors , the data from the internal buffer of the storage controller to the specified physical address of dynamic random access memory (DRAM) . copying , in a first stage using one or more processors , data from a given second tier memory address into an internal buffer of a storage controller , the copying at least partially occurring during mapping by an operating system of a specified physical address into an input/output memory management unit (IOMMU) ; determining , with the one or more processors , whether a second stage is triggered; and if the second stage is triggered, copying , with the one or more processors , the data from the internal buffer of the storage controller to the specified physical address of dynamic random access memory (DRAM) .