mhurhangee/ep-ind-claims huggingface dataset:
A process for preparing a thermoplastic polymeric composition, said process comprising: (a) heating a polymer blend comprising a polypropylene homopolymer and a propylene-α-olefin interpolymer to a melt temperature of greater than 140 °C and at least the melting temperature of either the polypropylene homopolymer or the propylene-α-olefin interpolymer, whichever is greater, for a time sufficient to form a polymer melt blend; and (b) cooling said polymer melt blend from said melt temperature down to ambient temperature, wherein said cooling comprises: (i) non-control-cooling said polymer melt blend from said melt temperature to an initial cooled temperature in the range of from 140 to 125 °C, (ii) control-cooling said polymer melt blend at an average cooling rate in the range of from 0.1 to 30 °C per minute from said initial cooled temperature to an intermediate cooled temperature in the range of from 110 to 100 °C, and (iii) cooling, by either control-cooling or non-control-cooling, said polymer melt blend from said intermediate cooled temperature to ambient temperature, thereby forming said polymeric composition. (a) heating a polymer blend comprising a polypropylene homopolymer and a propylene-α-olefin interpolymer to a melt temperature of greater than 140 °C and at least the melting temperature of either the polypropylene homopolymer or the propylene-α-olefin interpolymer, whichever is greater, for a time sufficient to form a polymer melt blend; and (b) cooling said polymer melt blend from said melt temperature down to ambient temperature, wherein said cooling comprises: (i) non-control-cooling said polymer melt blend from said melt temperature to an initial cooled temperature in the range of from 140 to 125 °C, (ii) control-cooling said polymer melt blend at an average cooling rate in the range of from 0.1 to 30 °C per minute from said initial cooled temperature to an intermediate cooled temperature in the range of from 110 to 100 °C, and (iii) cooling, by either control-cooling or non-control-cooling, said polymer melt blend from said intermediate cooled temperature to ambient temperature, thereby forming said polymeric composition. (i) non-control-cooling said polymer melt blend from said melt temperature to an initial cooled temperature in the range of from 140 to 125 °C, (ii) control-cooling said polymer melt blend at an average cooling rate in the range of from 0.1 to 30 °C per minute from said initial cooled temperature to an intermediate cooled temperature in the range of from 110 to 100 °C, and (iii) cooling, by either control-cooling or non-control-cooling, said polymer melt blend from said intermediate cooled temperature to ambient temperature, thereby forming said polymeric composition.
A rail extension, comprising an energy absorber comprising a polymer body, wherein the energy absorber comprises cells formed by cell walls extending a length of the energy absorber and forming cavities therethrough; characterized by open channels formed on each side of and along the energy absorber, wherein the channels are defined by walls of adjacent cells, forming open, 3 sided channels; and vehicle attachment tabs extending from one end of the energy absorber and configured to attach to a vehicle rail, and an attachment tab extending from another end of the energy absorber and configured to attach to a bumper beam. cells formed by cell walls extending a length of the energy absorber and forming cavities therethrough; characterized by open channels formed on each side of and along the energy absorber, wherein the channels are defined by walls of adjacent cells, forming open, 3 sided channels; and vehicle attachment tabs extending from one end of the energy absorber and configured to attach to a vehicle rail, and an attachment tab extending from another end of the energy absorber and configured to attach to a bumper beam.
An apparatus, comprising: a memory device; and a controller coupled to the memory device configured to: perform operations on the memory device based on commands received from a host according to a protocol, wherein the protocol includes non-deterministic timing of the operations, wherein the controller sends a read ready command in response to receiving the commands from the host and having data associated with the commands ready to send to the host by locating the data in the memory device, and wherein the host sends a read send signal to the controller in response to receiving the read ready command. a memory device; and a controller coupled to the memory device configured to: perform operations on the memory device based on commands received from a host according to a protocol, wherein the protocol includes non-deterministic timing of the operations, wherein the controller sends a read ready command in response to receiving the commands from the host and having data associated with the commands ready to send to the host by locating the data in the memory device, and wherein the host sends a read send signal to the controller in response to receiving the read ready command.
A sealing unit comprising a sealing jaw (104;204) suspended in a socket (160;260) via a suspension comprising a first spring arrangement (146;246) and a second spring arrangement (149,151;249) for selectively biasing the sealing jaw in a sealing direction, characterized in that the suspension has - a first state in which the first spring arrangement is rigidly attached to the socket (160;260) and operable to apply a biasing force onto the sealing jaw (104;204) in the sealing direction while the second spring arrangement (149;249) is prevented from applying a biasing force onto the sealing jaw (160:260), and - a second state in which the first spring arrangement (146; 246) is movably arranged to the socket (160;260) and the second spring arrangement (149,151;249) is arranged to apply a biasing force onto the sealing jaw (160;260) in the sealing direction. - a first state in which the first spring arrangement is rigidly attached to the socket (160;260) and operable to apply a biasing force onto the sealing jaw (104;204) in the sealing direction while the second spring arrangement (149;249) is prevented from applying a biasing force onto the sealing jaw (160:260), and - a second state in which the first spring arrangement (146; 246) is movably arranged to the socket (160;260) and the second spring arrangement (149,151;249) is arranged to apply a biasing force onto the sealing jaw (160;260) in the sealing direction.
A use of one or more additives of formula below: wherein: - R 1 represents a C 1 to C 18 linear or branched, saturated or unsaturated alkyl chain, optionally substituted by a heteroatom, - R 3 represents a C 1 to C 18 linear or branched, saturated or unsaturated alkyl chain, optionally substituted by a heteroatom, - R 2 represents a group -(CH 2) 2 CO-OR 4, wherein R 4 represents: - a group of formula below: to reduce the ageing of a phase-change material selected from C 4 to C 40 linear or branched aliphatic α,ω-dicarboxylic acids. - R 1 represents a C 1 to C 18 linear or branched, saturated or unsaturated alkyl chain, optionally substituted by a heteroatom, - R 3 represents a C 1 to C 18 linear or branched, saturated or unsaturated alkyl chain, optionally substituted by a heteroatom, - R 2 represents a group -(CH 2) 2 CO-OR 4, - a group of formula below: to reduce the ageing of a phase-change material selected from C 4 to C 40 linear or branched aliphatic α,ω-dicarboxylic acids.
An edible container for food products comprising two halves of the same shape and design, each of which is made of baked dough and has the form of a thin-walled tray with side walls on which protrusions and hollows are made, herewith, each half is made symmetrical in plan in the shape of the tray relative to at least one axis passing along the surface of the bottom of the tray, and both halves are interconnected with the location of the protrusions of one half in the hollows of the other half for the formation of a hollow thin-walled shell, along the edge of the side walls of each tray a support end platform is made to ensure resting of the trays against each other when they are connected, and protrusions and hollows in each tray are located along this support platform, characterized in that the protrusions and hollows in each tray are located on the side of the inner wall of the tray while the protrusions are located above the level of the support platform, and the hollows are located below this level, the recesses are made on the outer surface of the tray opposite to each protrusion inside the tray extended along the height of side wall to form stiffeners on the outer surface, and each protrusion in the tray is located opposite to such recess.
Apparatus for cleaning gutters comprising a main body with a handling portion (2.3) and two arm portions (2a, 2b) laterally protruding from said handling portion (2.3), wherein a first cleaning portion (2.1) is provided at a first arm portion and a second cleaning portion (2.2) is provided at a second arm portion, the apparatus further comprises liquid guiding means, said liquid guiding means being adapted to guide liquid towards the first or the second cleaning portion (2.1, 2.2), wherein said main body comprises a handling portion (2.3) adapted to couple to a handle or a handle fixing portion (7.1) via adjusting means, with the adjusting means allowing to adjust the angle of inclination of the main body in respect to the handle or handle fixing portion (7.1), characterized in that said main body further comprises a coupling portion, distinct from the said handling portion (2.3), the coupling portion adapted to receive a quick coupler of a hose and said coupling portion is fluidly coupled with said liquid guiding means included in said main body.
A pharmaceutically acceptable base addition salt of a compound of Formula: wherein, the base addition salt is crystalline form A of mono-sodium salt of compound of formula having an X-ray powder diffraction pattern comprising 2θ values at 14.73° ± 0.2°, 14.93° ± 0.2°, 21.77° ± 0.2°, 22.59° ± 0.2°, 23.29° ± 0.2° and 24.87° ± 0.2°.
Railroad renewal method comprising, in particular, the removal of the old rail, the laying of the new rail and the primary adjustment of the temperature of said new rail at a point located upstream from and close to the attachment area where it is attached to a crosstie, characterized in that the thermodynamic behavior of the intermediate section of the new rail located between its primary temperature adjustment point and the attachment area is controlled such that the temperature of the new rail is uniform, in the cross-section thereof, at a set value (Tf) at the attachment point.
An illuminator of a time-of-flight camera system, the illuminator having a moveable lens assembly (501, 502) comprising a lens and a lens holder for adjusting the size of an illuminated region by moving the lens vertically above a light source as well as scanning the illumination region, the illuminator comprising: the light source which sits beneath the lens and configured such that, when the light source is illuminated, emitted light propagates through the lens and into a field of view of the camera; and a pair of voice coil motors (531, 532) each with a spring return (533, 534) configured to be used as actuators to define the vertical position of each of two points along an outer edge of the lens wherein: a tilt angle of the lens about a y-axis is substantially defined by a force of a first motor of the pair of voice coil motors as applied against its spring return; a tilt angle of the lens about a x-axis is substantially defined by a force of a second motor of the pair of voice coil motors as applied against its spring return; and the vertical positioning of the lens is established by actuating the two voice coil motors (531, 532) equally. the light source which sits beneath the lens and configured such that, when the light source is illuminated, emitted light propagates through the lens and into a field of view of the camera; and a pair of voice coil motors (531, 532) each with a spring return (533, 534) configured to be used as actuators to define the vertical position of each of two points along an outer edge of the lens wherein: a tilt angle of the lens about a y-axis is substantially defined by a force of a first motor of the pair of voice coil motors as applied against its spring return; a tilt angle of the lens about a x-axis is substantially defined by a force of a second motor of the pair of voice coil motors as applied against its spring return; and the vertical positioning of the lens is established by actuating the two voice coil motors (531, 532) equally. a tilt angle of the lens about a y-axis is substantially defined by a force of a first motor of the pair of voice coil motors as applied against its spring return; a tilt angle of the lens about a x-axis is substantially defined by a force of a second motor of the pair of voice coil motors as applied against its spring return; and the vertical positioning of the lens is established by actuating the two voice coil motors (531, 532) equally.
A method of a Radio Resource Management, RRM, node in a first cell of facilitating scheduling of resource blocks for at least one mobile terminal (UE4, UE5, UE6) in a neighbouring second cell of a wireless communications network, the method comprising: predicting future scheduling decisions pertaining to allocation of one or more resource blocks in a subsequent scheduling time interval to at least one mobile terminal (UE1, UE2, UE3) in the first cell; and sending information pertaining to the predicted allocation of the one or more resource blocks to an RRM node of the neighbouring second cell, wherein a start of the subsequent scheduling time interval, in which the allocation of the one or more resource blocks is predicted, is selected to occur after an expected instant in time at which the RRM node of the neighbouring second cell receives the information pertaining to the predicted allocation of the one or more resource blocks to at least one mobile terminal (UE1, UE2, UE3) in the first cell. predicting future scheduling decisions pertaining to allocation of one or more resource blocks in a subsequent scheduling time interval to at least one mobile terminal (UE1, UE2, UE3) in the first cell; and sending information pertaining to the predicted allocation of the one or more resource blocks to an RRM node of the neighbouring second cell, wherein a start of the subsequent scheduling time interval, in which the allocation of the one or more resource blocks is predicted, is selected to occur after an expected instant in time at which the RRM node of the neighbouring second cell receives the information pertaining to the predicted allocation of the one or more resource blocks to at least one mobile terminal (UE1, UE2, UE3) in the first cell.
A laser ablation control system, comprising: a frame adapted for attachment to an ophthalmic microscope and including a portion that is adjacent to a field of view of said microscope; a beam combiner in the field of view of said microscope; a beam scanner adjacent to said portion and whereof the output is a scanned beam aimed at said beam combiner; a converging lens between said scanner and said beam combiner; and, at least one patterned light source fixedly coupled to said lens and aimed at said beam combiner, said light source generating a pattern having a predetermined form at a focal location of said output; characterized in that said at least one patterned light source comprises at least two point sources, thereby generating a pair of rays that converge at said focal location. a frame adapted for attachment to an ophthalmic microscope and including a portion that is adjacent to a field of view of said microscope; a beam combiner in the field of view of said microscope; a beam scanner adjacent to said portion and whereof the output is a scanned beam aimed at said beam combiner; a converging lens between said scanner and said beam combiner; and, at least one patterned light source fixedly coupled to said lens and aimed at said beam combiner, said light source generating a pattern having a predetermined form at a focal location of said output;
Method for controlling an ultrasonic sensor for a vehicle, which ultrasonic sensor is attached in a cutout of a trim of the vehicle, wherein the ultrasonic sensor comprises an ultrasound membrane for transmitting and receiving ultrasonic signals, the method comprising the steps of: monitoring air pressure changes in the region of the ultrasound membrane, identifying a cyclical air pressure change in the air pressure changes, and adjusting a detection of objects using the ultrasonic sensor on the basis of the cyclical air pressure change, wherein the method comprises an additional step for monitoring a movement speed of the vehicle, and the step of adjusting a detection of objects using the ultrasonic sensor on the basis of the cyclical air pressure change is implemented with additional consideration given to the movement speed of the vehicle, wherein the step of adjusting a detection of objects using the ultrasonic sensor on the basis of the cyclical air pressure change comprises setting a transmission behaviour and a reception behaviour of the ultrasonic sensor on the basis of the cyclical air pressure change. monitoring air pressure changes in the region of the ultrasound membrane, identifying a cyclical air pressure change in the air pressure changes, and adjusting a detection of objects using the ultrasonic sensor on the basis of the cyclical air pressure change, wherein the method comprises an additional step for monitoring a movement speed of the vehicle, and the step of adjusting a detection of objects using the ultrasonic sensor on the basis of the cyclical air pressure change is implemented with additional consideration given to the movement speed of the vehicle, wherein the step of adjusting a detection of objects using the ultrasonic sensor on the basis of the cyclical air pressure change comprises setting a transmission behaviour and a reception behaviour of the ultrasonic sensor on the basis of the cyclical air pressure change.
A method of providing differentially private database security, comprising: receiving a request from a client to perform a query on data stored in a database; establishing a set of permissions granted to the client with respect to the data in the database, wherein the set of permissions comprises a private compute permission granting permission to perform differentially private operations on specified data in the database; deconstructing the query into query components, wherein the query components comprise at least one relation identifying a dataset in the database and at least one expression specifying an operation to be performed in the identified dataset; identifying permissions necessary to perform the specified operation on the identified dataset, wherein the identified permissions comprise the private compute permission and the identified dataset comprises the specified data; determining whether the established set of permissions granted to the client includes the identified permissions necessary to perform the specified operation on the identified dataset using a set of mutually recursive functions to check whether the established set of permissions granted to the client includes the identified permissions necessary to perform expressions on relations indicated by the deconstructed query components; and selectively executing the query responsive to the determination. receiving a request from a client to perform a query on data stored in a database; establishing a set of permissions granted to the client with respect to the data in the database, wherein the set of permissions comprises a private compute permission granting permission to perform differentially private operations on specified data in the database; deconstructing the query into query components, wherein the query components comprise at least one relation identifying a dataset in the database and at least one expression specifying an operation to be performed in the identified dataset; identifying permissions necessary to perform the specified operation on the identified dataset, wherein the identified permissions comprise the private compute permission and the identified dataset comprises the specified data; determining whether the established set of permissions granted to the client includes the identified permissions necessary to perform the specified operation on the identified dataset using a set of mutually recursive functions to check whether the established set of permissions granted to the client includes the identified permissions necessary to perform expressions on relations indicated by the deconstructed query components; and selectively executing the query responsive to the determination.
A beverage producing machine comprising a housing and a connector for attaching an ingredient container C to said housing, said connector comprising: a bottom wall with a passage for dispensing said ingredient towards the interior of the housing; and a locking seat (43, 45) for said ingredient container, the locking seat comprising a ridge member at least partly surrounding the bottom wall; characterized in that at least one resilient element (47, 49) is provided in said locking seat (43, 45) and constrained to the ridge member; wherein the ridge member is provided with at least one tangentially extending slot (39, 41) with an edge extending substantially parallel to and distanced from the bottom wall, said at least one resilient element projecting from the edge of the slot towards the bottom wall; said resilient element being arranged to reduce backlash between an ingredient container C and said connector when said ingredient container is locked to said connector.
A wireless data communication module for a drug injection device, comprising: - a folded flexible carrier member comprising a plurality of stacked component support regions (203, 205, 207, 209, 211), and foldable sections (107a, 107b, 107c, 107d) connecting two or more of the plurality of stacked component support regions to each other, - a display, such as a LCD or OLED display, electrically connected to conductors of a first component support region of the folded flexible carrier member via a first set of electrical connection terminals, - where the display comprises an outwardly facing readable display and an opposing, downwardly, facing optical reflector, - a NFC antenna, and - an electronics circuit assembly comprising at least a processor and a non-volatile memory; characterized in that the NFC antenna is attached to a second component support region of the folded flexible carrier member situated below the first component support region, wherein the electronics circuit assembly is attached to a third component support region of the folded flexible carrier member situated below the second support region, wherein the optical reflector of the display comprises an optically reflective and non-magnetically permeable material, and wherein a magnetically permeable sheet, such as a ferrite sheet, is situated in-between the NFC antenna on the second component support region and the electronics circuit assembly on the third component support region shielding the NFC antenna from EMI noise generated by the electronics circuit assembly. - a folded flexible carrier member comprising a plurality of stacked component support regions (203, 205, 207, 209, 211), and foldable sections (107a, 107b, 107c, 107d) connecting two or more of the plurality of stacked component support regions to each other, - a display, such as a LCD or OLED display, electrically connected to conductors of a first component support region of the folded flexible carrier member via a first set of electrical connection terminals, - where the display comprises an outwardly facing readable display and an opposing, downwardly, facing optical reflector, - a NFC antenna, and - an electronics circuit assembly comprising at least a processor and a non-volatile memory;