mhurhangee/ep-ind-claims huggingface dataset:
A method implemented by a processor of a mobile device for synchronizing the mobile device with an email mailbox on a mail server, the method comprising: sending a search query to the mail server to identify a predetermined number of email messages currently stored on the mail server that are associated with folders of the email mailbox other than an inbox folder; selecting one or more folders of the email mailbox on the mail server to synchronize locally on the mobile device based on a score for each folder derived from a weighting of two or more factors relating to mailbox usage patterns associated with the email mailbox and determined through the identified email messages; retrieving, from the mail server, at least portions of one or more email messages associated with the selected folders; creating account folders for an account corresponding to the email mailbox in a mail client application on the mobile device, the account folders corresponding to the selected folders of the email mailbox on the mail server; and synchronizing the created account folders with the at least portions of the retrieved email messages. sending a search query to the mail server to identify a predetermined number of email messages currently stored on the mail server that are associated with folders of the email mailbox other than an inbox folder; selecting one or more folders of the email mailbox on the mail server to synchronize locally on the mobile device based on a score for each folder derived from a weighting of two or more factors relating to mailbox usage patterns associated with the email mailbox and determined through the identified email messages; retrieving, from the mail server, at least portions of one or more email messages associated with the selected folders; creating account folders for an account corresponding to the email mailbox in a mail client application on the mobile device, the account folders corresponding to the selected folders of the email mailbox on the mail server; and synchronizing the created account folders with the at least portions of the retrieved email messages.
A method of verifying first identification information stored in a memory on a chip via a radio frequency antenna, the method comprising: receiving a security key at a security unit coupled to the memory, wherein the security unit stores a security key for accessing the memory; validating the received security key to determine whether the received security key matches the stored security key in the security unit; and if the received security key matches the stored security key: granting access to the memory; reading first identification information from the memory on the chip associated with an identification mechanism and communicating the first identification information to a reader via the radio frequency antenna; collecting second identification information from an individual; and comparing, at the reader, the first identification information with the second identification information from the individual to verify the identification of the individual. receiving a security key at a security unit coupled to the memory, wherein the security unit stores a security key for accessing the memory; validating the received security key to determine whether the received security key matches the stored security key in the security unit; and if the received security key matches the stored security key: granting access to the memory; reading first identification information from the memory on the chip associated with an identification mechanism and communicating the first identification information to a reader via the radio frequency antenna; collecting second identification information from an individual; and comparing, at the reader, the first identification information with the second identification information from the individual to verify the identification of the individual. granting access to the memory; reading first identification information from the memory on the chip associated with an identification mechanism and communicating the first identification information to a reader via the radio frequency antenna; collecting second identification information from an individual; and comparing, at the reader, the first identification information with the second identification information from the individual to verify the identification of the individual.
A biological oxygen demand sensor, comprising at least one counter electrode; a reservoir for dilution fluid; and a sensor for measuring an electric current or a voltage which flows from the working electrodes to the counter electrode; characterized in that the BOD sensor further comprises at least three working electrodes; at least one electrically active microbe disposed in proximity to the working electrodes; and the BOD sensor further comprises at least three mixing chambers and each mixing chamber is fluidicly coupled to a working electrode and the reservoir, and each mixing chamber is configured to receive a diluted sample created by contacting a sample with the dilution fluid in the reservoir. at least one counter electrode; a reservoir for dilution fluid; and a sensor for measuring an electric current or a voltage which flows from the working electrodes to the counter electrode; characterized in that the BOD sensor further comprises at least three working electrodes; at least one electrically active microbe disposed in proximity to the working electrodes; and the BOD sensor further comprises at least three mixing chambers and each mixing chamber is fluidicly coupled to a working electrode and the reservoir, and each mixing chamber is configured to receive a diluted sample created by contacting a sample with the dilution fluid in the reservoir.
A method of feeding back a channel response estimate of a backhaul link established between a base station and a relay that assists the base station in communicating with a mobile device over an access link established between the relay and the mobile device, the method comprising: - estimating a first part of the backhaul link channel response by calculating an average of the backhaul link channel response over a predetermined time period and/or predetermined frequency band at the relay and calculating a variance of the backhaul link channel response over the predetermined time period and/or the predetermined frequency band, wherein the estimated first part of the backhaul link channel response includes the average and the variance; - estimating a second part of the backhaul link channel response by calculating variation in the backhaul link channel response over the predetermined time period and/or the predetermined frequency band at the relay by subtracting the average from an instantaneous estimate of the backhaul link channel response; and scaling the second part of the backhaul link channel response based on the variance prior to quantization, the second part of the backhaul link channel response changing faster than the first part; and - transmitting a quantized version of the estimated first part of the backhaul link channel response and a quantized version of the estimated second part of the backhaul link channel response from the relay to the base station over the backhaul link. - estimating a first part of the backhaul link channel response by calculating an average of the backhaul link channel response over a predetermined time period and/or predetermined frequency band at the relay and calculating a variance of the backhaul link channel response over the predetermined time period and/or the predetermined frequency band, wherein the estimated first part of the backhaul link channel response includes the average and the variance; - estimating a second part of the backhaul link channel response by calculating variation in the backhaul link channel response over the predetermined time period and/or the predetermined frequency band at the relay by subtracting the average from an instantaneous estimate of the backhaul link channel response; and scaling the second part of the backhaul link channel response based on the variance prior to quantization, the second part of the backhaul link channel response changing faster than the first part; and - transmitting a quantized version of the estimated first part of the backhaul link channel response and a quantized version of the estimated second part of the backhaul link channel response from the relay to the base station over the backhaul link.
A multivalent monospecific antibody or fragment thereof which binds and activates Siglec-7, for use in the treatment of a mast cell related cancer in a subject in need thereof.
A wearable external infusion device for infusing a fluid into a body comprising: a first module, said module being compact so that it can be worn under clothing, said first module including; a first housing, an alarm in the first housing, a reservoir in the first housing to hold a fluid, and a pump in the first housing, adapted to pump the fluid from the reservoir; and a second module including; a second housing, and a display (101, 301) in the second housing, wherein the second module communicates with the first module to provide a fluid delivery program for the flow of the fluid from the first housing; the second module being adapted to be attachable to and removable from the first module without interrupting or discontinuing the fluid delivery program thereby enabling the first module to be worn without the second module making the infusion device lighter and less bulky than with both modules. a first module, said module being compact so that it can be worn under clothing, said first module including; a first housing, an alarm in the first housing, a reservoir in the first housing to hold a fluid, and a pump in the first housing, adapted to pump the fluid from the reservoir; and a second module including; a second housing, and a display (101, 301) in the second housing, wherein the second module communicates with the first module to provide a fluid delivery program for the flow of the fluid from the first housing; the second module being adapted to be attachable to and removable from the first module without interrupting or discontinuing the fluid delivery program thereby enabling the first module to be worn without the second module making the infusion device lighter and less bulky than with both modules.
A centrifugal separator for separating a liquid heavy phase and a liquid light phase from a liquid feed mixture, comprising a frame, a drive member and a rotating part, wherein the drive member is configured to rotate the rotating part in relation to the frame around an axis of rotation, and wherein the rotating part comprises a centrifuge rotor enclosing a separation space and a sludge space; wherein the separation space comprises a stack of separation discs arranged coaxially around the axis of rotation and wherein said sludge space is arranged radially outside said stack of separation discs; wherein the centrifugal separator further comprises an inlet for receiving the liquid feed mixture into the centrifuge rotor, a first outlet for the separated liquid heavy phase, a second outlet for the separated liquid light phase, and a third set of outlets for discharging sludge and liquid heavy phase accumulated in the sludge space; wherein the centrifugal separator further comprises a conduit system for recirculating separated liquid heavy phase discharged from the first outlet to the sludge space within the centrifuge rotor of the centrifugal separator without mixing the recirculated separated liquid heavy phase with the liquid feed mixture. a frame, a drive member and a rotating part, wherein the drive member is configured to rotate the rotating part in relation to the frame around an axis of rotation, and wherein the rotating part comprises a centrifuge rotor enclosing a separation space and a sludge space; wherein the separation space comprises a stack of separation discs arranged coaxially around the axis of rotation and wherein said sludge space is arranged radially outside said stack of separation discs; wherein the centrifugal separator further comprises an inlet for receiving the liquid feed mixture into the centrifuge rotor, a first outlet for the separated liquid heavy phase, a second outlet for the separated liquid light phase, and a third set of outlets for discharging sludge and liquid heavy phase accumulated in the sludge space; wherein the centrifugal separator further comprises a conduit system for recirculating separated liquid heavy phase discharged from the first outlet to the sludge space within the centrifuge rotor of the centrifugal separator without mixing the recirculated separated liquid heavy phase with the liquid feed mixture.
Breathable underlay with a water vapour diffusion equivalent air layer thickness S d according to EN ISO 12572 less or equal than 0.5 m, comprising at least one fabric carrier layer with two faces, which carrier layer is water-permeable and vapour-permeable, and a water-impermeable and vapour-permeable active layer attached to one face of the two faces of the carrier layer characterized in that the carrier layer is coated on the other face of the two faces with a coating layer, which coating layer has a face that is exposed and which is water-permeable and vapour-permeable and it is made at least partially from one of the following a) thermoplastic polyurethane, b) polyether polyamide block copolymer or c) polyether-ester, wherein water and vapour permeability are defined in accordance with EN 13859-1 and 13859-2.
Positive temperature coefficient electric heater for a vehicle, comprising a support part and a control circuitry housed within the support part, and a first and a second radiating layer (110, 120) superimposed to each other and configured to be passed through by an air flow, each radiating layer (110, 120) comprising a plurality of heating rods (115, 115'; 125, 125'), extending from the support part and connected in parallel to the control circuitry, each of said heating rods having a first section (115a, 115a'; 125a, 125a') adjacent to the support part and a second section (115b, 115b'; 125b, 125b') far from the support part, wherein each radiating layer (110, 120) comprises a first layer sector (A1, C1; A2, C2) and a second layer sector (B1, D1; B2, D2) controllable independently from each other through the control circuitry and wherein the radiating layers (110, 120) are connected in parallel to the control circuitry and are controllable independently from each other through the control circuitry, the heater being characterised in that the heating rods (115, 115'; 125, 125') are configured in such a way that, in the first radiating layer, the second section (115b, 115b') of the respective heating rods (115, 115') is capable of generating a greater thermal power than the first section (115a, 115a') of the respective heating rods (115, 115'), and, in the second radiating layer, the first section (125a, 125a') of the respective heating rods (125, 125') is capable of generating a greater thermal power than the second section (125b, 125b') of the respective heating rods (125, 125'). a support part and a control circuitry housed within the support part, and a first and a second radiating layer (110, 120) superimposed to each other and configured to be passed through by an air flow, each radiating layer (110, 120) comprising a plurality of heating rods (115, 115'; 125, 125'), extending from the support part and connected in parallel to the control circuitry, each of said heating rods having a first section (115a, 115a'; 125a, 125a') adjacent to the support part and a second section (115b, 115b'; 125b, 125b') far from the support part, wherein each radiating layer (110, 120) comprises a first layer sector (A1, C1; A2, C2) and a second layer sector (B1, D1; B2, D2) controllable independently from each other through the control circuitry and wherein the radiating layers (110, 120) are connected in parallel to the control circuitry and are controllable independently from each other through the control circuitry, the heater being characterised in that the heating rods (115, 115'; 125, 125') are configured in such a way that, in the first radiating layer, the second section (115b, 115b') of the respective heating rods (115, 115') is capable of generating a greater thermal power than the first section (115a, 115a') of the respective heating rods (115, 115'), and, in the second radiating layer, the first section (125a, 125a') of the respective heating rods (125, 125') is capable of generating a greater thermal power than the second section (125b, 125b') of the respective heating rods (125, 125').
A hydraulic chuck adapted to grip at least one workpiece, comprising: a chuck body; a fixed seat fixedly mounted to said chuck body, and having a side surface; a rotary seat mounted to said fixed seat and rotatable relative to said fixed seat about a central axis, said rotary seat having a side surface that faces toward said side surface of said fixed seat, said side surface of said fixed seat and said side surface of said rotary seat cooperatively defining a gap therebetween that permits pressurized oil to flow therethrough; a plurality of flexible seal members each being centered at the central axis and a driving set unit movably mounted to said rotary seat and moved by the pressurized oil for gripping or releasing the workpiece, characterized in that each flexible seal member has a first annular segment that is fixedly mounted to said fixed seat, a neck segment that extends from said first annular segment and through said gap, and a second annular segment that is connected to an end of said neck segment distal from said first annular segment, that is disposed adjacent to said rotary seat and that cooperated with said first annular segment and said neck segment to define at least one oil groove thereamong, said second annular segments of at least one adjacent pair of said seal members being pushed to be in contact with said rotary seat when the pressurized oil is introduced into said gap, said second annular segments of said seal members being spaced apart from said rotary seat when the pressurized oil is ceased to be introduced into said gap. a chuck body; a fixed seat fixedly mounted to said chuck body, and having a side surface; a rotary seat mounted to said fixed seat and rotatable relative to said fixed seat about a central axis, said rotary seat having a side surface that faces toward said side surface of said fixed seat, said side surface of said fixed seat and said side surface of said rotary seat cooperatively defining a gap therebetween that permits pressurized oil to flow therethrough; a plurality of flexible seal members each being centered at the central axis and a driving set unit movably mounted to said rotary seat and moved by the pressurized oil for gripping or releasing the workpiece, characterized in that each flexible seal member has a first annular segment that is fixedly mounted to said fixed seat, a neck segment that extends from said first annular segment and through said gap, and a second annular segment that is connected to an end of said neck segment distal from said first annular segment, that is disposed adjacent to said rotary seat and that cooperated with said first annular segment and said neck segment to define at least one oil groove thereamong, said second annular segments of at least one adjacent pair of said seal members being pushed to be in contact with said rotary seat when the pressurized oil is introduced into said gap, said second annular segments of said seal members being spaced apart from said rotary seat when the pressurized oil is ceased to be introduced into said gap.
Milling device for the fine milling of cereals, in particular coffee beans, comprising a housing in which a grinder is arranged that can be driven by at least one driving device, the grinder comprising a plurality of milling rollers (10, 12, 14), which define at least two milling passages (16, 18), each with a milling gap, such that a milling gap is formed by the smallest distance d between two adjacent milling rollers, wherein all successive milling passages are part of a product guide channel, wherein at least a number n>2 milling rollers (10, 12, 14) are provided, which are arranged offset to one another such that a milling roller forms a milling gap d 1-(n-1) with two adjacent milling rollers (10, 14) so that the grinder has a number (n-1) of milling passages (16, 18), characterized in that a housing part is provided for the grinder, said housing part comprising a continuous product guide channel extending from an inlet opening to an outlet opening and having recesses (30, 32, 34) for the milling rollers.
Method for operating a drive train with a drive shaft, an electrical prime mover that is connected to a power grid and can be motor-operated or generator-operated, and with a differential gear system with three inputs or outputs, one output being connected to the drive shaft, one input being connected to the prime mover, and a second input being connected to a differential drive that can only be only motor-operated, characterized in that the differential drive is only motor-operated, while the prime mover is motor-operated or generator-operated.
A heat transfer plate (1, 2) that includes a plurality of flow paths formed on both front and back surfaces in a first direction and adapted to form a heat exchange element by stacking a plurality of the heat transfer plates (1, 2) in the first direction, the heat transfer plate (1, 2) comprising a corrugated portion (11, 21) having a corrugated shape adapted to form each of parts of the plurality of flow paths, wherein the corrugated portion (11, 21) includes: front-side convex portions (14, 24) that are convex toward one side in the first direction; and back-side convex portions (15, 25) that are convex toward an opposite side in the first direction, the front-side convex portions (14, 24) and the back-side convex portions (15, 25) are formed alternately along a second direction orthogonal to the first direction, characterised in that at at least one end of both ends of each of the front-side convex portions (14, 24) in the second direction, there is provided a front-side protruding portion (16, 26) that protrudes toward other front-side convex portions (14, 24) adjacent in the second direction, wherein the front-side protruding portion (16, 26) is contactable with adjacent heat transfer plates (1, 2) in the first direction. a corrugated portion (11, 21) having a corrugated shape adapted to form each of parts of the plurality of flow paths, wherein the corrugated portion (11, 21) includes: front-side convex portions (14, 24) that are convex toward one side in the first direction; and back-side convex portions (15, 25) that are convex toward an opposite side in the first direction, the front-side convex portions (14, 24) and the back-side convex portions (15, 25) are formed alternately along a second direction orthogonal to the first direction, front-side convex portions (14, 24) that are convex toward one side in the first direction; and back-side convex portions (15, 25) that are convex toward an opposite side in the first direction, the front-side convex portions (14, 24) and the back-side convex portions (15, 25) are formed alternately along a second direction orthogonal to the first direction, characterised in that at at least one end of both ends of each of the front-side convex portions (14, 24) in the second direction, there is provided a front-side protruding portion (16, 26) that protrudes toward other front-side convex portions (14, 24) adjacent in the second direction, wherein the front-side protruding portion (16, 26) is contactable with adjacent heat transfer plates (1, 2) in the first direction.