mhurhangee/patent-ind-claim-en huggingface dataset:
A process for producing an ethylene polymer or copolymer which contains less than 2.5 ppm titanium and has a bulk density, in granular form, of at least 360 kg/m 3 (22.5 lbs/ft 3 ), said process comprising contacting, under polymerization conditions, ethylene and at least one alpha-olefin, and a spheroidal Ziegler-Natta type olefin polymerization catalyst having a particle size distribution characterized by a Dm*/Dn of less than 1.5 and a mass average diameter Dm of from 5 to 40 μm, wherein said catalyst consists of: i) a titanium metal compound that is introduced as a compound of the formula Ti(OR 1 ) a X b , where each R 1 is independently chosen from C 1-4 alkyl radicals and C 6-10 aromatic radicals, X is chosen from a chlorine atom and a bromine atom, a is an integer from 0 to 4, b is an integer from 0 to 4 and the sum of a+b is the valence of the Ti atom, and wherein at least 80% of said titanium metal compound is reduced to the Ti 3+ valence state by contact with; ii) an aluminum compound that is introduced as a compound of the formula: R 2 c Al(OR 2 ) d X 3-(c+d) wherein each R 2 is the same or different C 1-10 alkyl radical, X is a chlorine atom, c is an integer from 0 to 3, d is an integer from 0 to 3 and the sum of a+b is from 0 to 3; and iii) a spheroidal support of magnesium chloride complexed with an electron donor free of reactive hydrogen, wherein the magnesium chloride support comprises particles with a mass average diameter Dm of from 10 to 40 μm, and a particle size distribution characterized by a Dm/Dn of less than 1.5. i) a titanium metal compound that is introduced as a compound of the formula Ti(OR 1 ) a X b , where each R 1 is independently chosen from C 1-4 alkyl radicals and C 6-10 aromatic radicals, X is chosen from a chlorine atom and a bromine atom, a is an integer from 0 to 4, b is an integer from 0 to 4 and the sum of a+b is the valence of the Ti atom, and wherein at least 80% of said titanium metal compound is reduced to the Ti 3+ valence state by contact with; ii) an aluminum compound that is introduced as a compound of the formula: R 2 c Al(OR 2 ) d X 3-(c+d) wherein each R 2 is the same or different C 1-10 alkyl radical, X is a chlorine atom, c is an integer from 0 to 3, d is an integer from 0 to 3 and the sum of a+b is from 0 to 3; and iii) a spheroidal support of magnesium chloride complexed with an electron donor free of reactive hydrogen, wherein the magnesium chloride support comprises particles with a mass average diameter Dm of from 10 to 40 μm, and a particle size distribution characterized by a Dm/Dn of less than 1.5.
A hermaphroditic hybrid optical connector comprising: a connector housing comprising an insertion portion , wherein the insertion portion is asymmetric with respect to a mid-plane (MP) of the connector housing that is positioned in an optical axis of the hybrid optical connector, wherein the insertion portion comprises a first portion and a second portion , wherein the first portion and the second portion each comprise a first half and a second half with the first halves defining a female coupling feature having an opening and the second halves defining a male coupling feature where a width (W1) of the first half of the first and second portions is greater than a width (W2) of the second half of the first and second portions ; a ferrule housing defined by the connector housing ; a ferrule disposed within the ferrule housing of the connector housing , wherein the ferrule is at least partially disposed within an opening between the first portion and the second portion ; a first hermaphroditic electrical contact and a second hermaphroditic electrical contact disposed within the connector housing adjacent opposing sides of the ferrule ; a slider cap disposed on the ferrule housing to releasably engage with mating features of a mated optical connector and/or adapter . a connector housing comprising an insertion portion , wherein the insertion portion is asymmetric with respect to a mid-plane (MP) of the connector housing that is positioned in an optical axis of the hybrid optical connector, wherein the insertion portion comprises a first portion and a second portion , wherein the first portion and the second portion each comprise a first half and a second half with the first halves defining a female coupling feature having an opening and the second halves defining a male coupling feature where a width (W1) of the first half of the first and second portions is greater than a width (W2) of the second half of the first and second portions ; wherein the insertion portion is asymmetric with respect to a mid-plane (MP) of the connector housing that is positioned in an optical axis of the hybrid optical connector, wherein the insertion portion comprises a first portion and a second portion , wherein the first portion and the second portion each comprise a first half and a second half with the first halves defining a female coupling feature having an opening and the second halves defining a male coupling feature where a width (W1) of the first half of the first and second portions is greater than a width (W2) of the second half of the first and second portions ; a ferrule housing defined by the connector housing ; a ferrule disposed within the ferrule housing of the connector housing , wherein the ferrule is at least partially disposed within an opening between the first portion and the second portion ; a first hermaphroditic electrical contact and a second hermaphroditic electrical contact disposed within the connector housing adjacent opposing sides of the ferrule ; a slider cap disposed on the ferrule housing to releasably engage with mating features of a mated optical connector and/or adapter .
A method of communication at a wireless device, comprising: selecting a first data packet for transmission via a first wireless connection of a first radio access technology, RAT, that utilizes a first compression mode; transmitting the first data packet via the first wireless connection utilizing the first compression mode, wherein the first compression mode comprises compressing the first data packet and updating a compression buffer based at least in part on the first data packet; selecting a second data packet for transmission via a second wireless connection of a second RAT that utilizes a second compression mode, wherein selecting the second data packet is based at least in part on the second wireless connection being less reliable than the first wireless connection, wherein the second RAT is different from the first RAT and the second compression mode comprises compressing the second data packet and refraining from updating the buffer based on the second data packet; and transmitting the second data packet via the second wireless connection utilizing the second compression mode. selecting a first data packet for transmission via a first wireless connection of a first radio access technology, RAT, that utilizes a first compression mode; transmitting the first data packet via the first wireless connection utilizing the first compression mode, wherein the first compression mode comprises compressing the first data packet and updating a compression buffer based at least in part on the first data packet; selecting a second data packet for transmission via a second wireless connection of a second RAT that utilizes a second compression mode, wherein selecting the second data packet is based at least in part on the second wireless connection being less reliable than the first wireless connection, wherein the second RAT is different from the first RAT and the second compression mode comprises compressing the second data packet and refraining from updating the buffer based on the second data packet; and transmitting the second data packet via the second wireless connection utilizing the second compression mode.
A motor vehicle vacuum pump comprising - a pumping unit with a rotatable pump rotor , the pump rotor being configured to pump fluid from a suction side to a discharge side of the pumping unit during pump operation, - a pump housing with a housing discharge opening , the housing discharge opening being fluidically connected with the discharge side of the pumping unit , and - a separate deflection element which is attached to the pump housing and which defines a deflection channel , the deflection channel being fluidically connected with the housing discharge opening and being configured to deflect the fluid flow which is discharged out of the housing discharge opening during pump operation, characterized in that the deflection element is attachable to the pump housing with different orientations. - a pumping unit with a rotatable pump rotor , the pump rotor being configured to pump fluid from a suction side to a discharge side of the pumping unit during pump operation, - a pump housing with a housing discharge opening , the housing discharge opening being fluidically connected with the discharge side of the pumping unit , and - a separate deflection element which is attached to the pump housing and which defines a deflection channel , the deflection channel being fluidically connected with the housing discharge opening and being configured to deflect the fluid flow which is discharged out of the housing discharge opening during pump operation,
A helmet airflow control member , comprising: a plate-like main body arranged on a shell and including a main body rear surface that covers part of a shell outer surface ; and at least one passage formation portion arranged on the main body rear surface , wherein a periphery of the main body rear surface includes a first peripheral portion (21 E1), which is shaped in correspondence with the shell outer surface and closes a space between the main body rear surface and the shell outer surface , and a second peripheral portion (21E2), which is spaced apart from the shell outer surface and defines an opening of the space between the main body rear surface and the shell outer surface in cooperation with the shell outer surface , and the passage formation portion defines a passage in the space, with the passage extending from the opening into the space and returning from the space to the opening . a plate-like main body arranged on a shell and including a main body rear surface that covers part of a shell outer surface ; and at least one passage formation portion arranged on the main body rear surface , wherein a periphery of the main body rear surface includes a first peripheral portion (21 E1), which is shaped in correspondence with the shell outer surface and closes a space between the main body rear surface and the shell outer surface , and a second peripheral portion (21E2), which is spaced apart from the shell outer surface and defines an opening of the space between the main body rear surface and the shell outer surface in cooperation with the shell outer surface , and the passage formation portion defines a passage in the space, with the passage extending from the opening into the space and returning from the space to the opening .
A transmission method, comprising: creating an automatic repeat request process for a first packet; setting a lifetime for the automatic repeat request process; and sending the first packet; characterized in that the lifetime is obtained in one of the following manners: obtained according to a second predetermined number of the first packet and a mapping relationship between an effective time length of the automatic repeat request process or a total number of times of transmission and the second predetermined number of the first packet; obtained according to the second predetermined number of the first packet and a mapping relationship between the second predetermined number of the packet and one of an end time instant of the lifetime, a remaining-time length of the automatic repeat request process, or a number of remaining times of transmission; wherein the second predetermined number is a redundancy version number. creating an automatic repeat request process for a first packet; setting a lifetime for the automatic repeat request process; and sending the first packet; characterized in that the lifetime is obtained in one of the following manners: obtained according to a second predetermined number of the first packet and a mapping relationship between an effective time length of the automatic repeat request process or a total number of times of transmission and the second predetermined number of the first packet; obtained according to the second predetermined number of the first packet and a mapping relationship between the second predetermined number of the packet and one of an end time instant of the lifetime, a remaining-time length of the automatic repeat request process, or a number of remaining times of transmission; wherein the second predetermined number is a redundancy version number. obtained according to a second predetermined number of the first packet and a mapping relationship between an effective time length of the automatic repeat request process or a total number of times of transmission and the second predetermined number of the first packet; obtained according to the second predetermined number of the first packet and a mapping relationship between the second predetermined number of the packet and one of an end time instant of the lifetime, a remaining-time length of the automatic repeat request process, or a number of remaining times of transmission; wherein the second predetermined number is a redundancy version number.
An apparatus for stopping iterative decoding in a mobile communication system, comprising; a first constituent decoder for performing first constituent decoding of received signals and outputting a first constituent decoding result; a second constituent decoder for performing second constituent decoding of the received signals and outputting a second constituent decoding result; a first interleaver , connected between the first constituent decoder and the second constituent decoder , for interleaving a sequence of data output from the first constituent decoder and outputting first interleaved data to the second constituent decoder; a first hard decision section for performing a first hard decision process for outputs of the first constituent decoder and outputting a first hard decision result; a second hard decision section for performing a second hard decision process for outputs of the second constituent decoder and outputting a second hard decision result; a first cyclic redundancy check, CRC, encoder for first CRC encoding outputs of the first hard decision section and outputting a first CRC encoding result; a second CRC encoder for second CRC encoding outputs of the second hard decision section and outputting a second CRC encoding result; a first de-interleaver , connected between the second hard decision section and the second CRC encoder , for de-interleaving a sequence of data output from the second hard decision section and outputting first de-interleaved data to the second CRC encoder; and a stop condition determination section for determining whether the first and the second CRC encoding results are identical to previous CRC encoding results based on previous decoding processes, and determining to stop iterative decoding if the first and the second CRC encoding results are identical to the previous iterative decoding results.
A razor handle comprising a handle body extending in a longitudinal direction (L26), the handle body formed from a first material and having a front portion and a rear portion , the handle body has a non-constant width along the longitudinal direction (L26), the razor handle further comprising a longitudinal plane (L) formed along the longitudinal direction (L26) and a transverse axis (T) perpendicular to the longitudinal plane (L), the longitudinal plane (L) separating the handle body in a top portion and a bottom portion , the razor handle further comprising a connecting portion extending from the front portion of the handle body for connection to a razor cartridge , wherein the rear portion comprises a second material, the second material being more elastic than the first material whereby the rear portion is movable with respect to the front portion , wherein the rear portion is movable upwardly and downwardly along the transverse axis (T) with respect to the front portion .
A glass panel unit , comprising a first pane of glass , a second pane of glass that faces the first pane of glass with the first pane of glass and the second pane of glass spaced a predetermined interval apart, a seal that is disposed between the first pane of glass and the second pane of glass and joined to the first pane of glass and the second pane of glass in an airtight manner, an interior space that is encompassed with the first pane of glass, the second pane of glass and the seal, a partition wall that is disposed in the interior space and divides the interior space into a first space as a vacuum space and a second space , wherein the second space is a non-vacuum space, an air release vent that is formed in the first pane of glass or the second pane of glass and communicates with the second space, and a blocking member that is provided in the air release vent, wherein the blocking member is a filler that is disposed in all of the air release vent and the second space so as to fill the air release vent and the second space. a first pane of glass , a second pane of glass that faces the first pane of glass with the first pane of glass and the second pane of glass spaced a predetermined interval apart, a seal that is disposed between the first pane of glass and the second pane of glass and joined to the first pane of glass and the second pane of glass in an airtight manner, an interior space that is encompassed with the first pane of glass, the second pane of glass and the seal, a partition wall that is disposed in the interior space and divides the interior space into a first space as a vacuum space and a second space , wherein the second space is a non-vacuum space, an air release vent that is formed in the first pane of glass or the second pane of glass and communicates with the second space, and a blocking member that is provided in the air release vent, wherein the blocking member is a filler that is disposed in all of the air release vent and the second space so as to fill the air release vent and the second space.
A method performed by a Base Station, BS, , the method comprising: determining (S1010) a Hybrid Automatic Repeat Request-Acknowledgement, HARQ-ACK, codebook size for a User Equipment, UE, based on data to be transmitted in a data transmission to the UE , the HARQ-ACK codebook size indicating a number of HARQ-ACK bits for the UE to encode for transmitting Hybrid Automatic Repeat Request, HARQ, feedback for the data transmission to the BS ; transmitting (S1020) an indication of the HARQ-ACK codebook size in a Downlink Assignment Index, DAI, field of a Downlink, DL, assignment to the UE ; and wherein the data transmission to the UE is scheduled on a set of carriers comprised in a group of carriers, and characterised in that the transmitting the indication of the HARQ-ACK codebook size in the DAI field of the DL assignment to the UE comprises transmitting, for the set of carriers, respective Downlink Control Information, DCI, messages, wherein each DCI message comprises the DAI field and wherein the indication of the HARQ-ACK codebook size transmitted in the DAI field of each DCI message indicates a same first value for the set of carriers, wherein the first value indicates an order by which the set of carriers comprised in the group is scheduled relative to a further group of carriers comprising a further set of carriers also scheduled for the data transmission, and wherein the order is an ascending order. determining (S1010) a Hybrid Automatic Repeat Request-Acknowledgement, HARQ-ACK, codebook size for a User Equipment, UE, based on data to be transmitted in a data transmission to the UE , the HARQ-ACK codebook size indicating a number of HARQ-ACK bits for the UE to encode for transmitting Hybrid Automatic Repeat Request, HARQ, feedback for the data transmission to the BS ; transmitting (S1020) an indication of the HARQ-ACK codebook size in a Downlink Assignment Index, DAI, field of a Downlink, DL, assignment to the UE ; and wherein the data transmission to the UE is scheduled on a set of carriers comprised in a group of carriers, and characterised in that the transmitting the indication of the HARQ-ACK codebook size in the DAI field of the DL assignment to the UE comprises transmitting, for the set of carriers, respective Downlink Control Information, DCI, messages, wherein each DCI message comprises the DAI field and wherein the indication of the HARQ-ACK codebook size transmitted in the DAI field of each DCI message indicates a same first value for the set of carriers, wherein the first value indicates an order by which the set of carriers comprised in the group is scheduled relative to a further group of carriers comprising a further set of carriers also scheduled for the data transmission, and wherein the order is an ascending order.
Method for testing an in particular biological sample (P), the sample (P) being received in a cartridge , the sample (P) being conveyed through a fluid system with a plurality of channels of the cartridge , the sample (P) being conveyed to a sensor arrangement of the cartridge in order to detect analytes (A) of the sample (P), characterised in that the sample (P) is divided into a plurality of sample portions (P1, P2, P3), the sample portions (P1, P2, P3) each being individually conveyed and in succession conveyed to a sensor compartment of the common sensor arrangement, wherein a sensor cover of the sensor arrangement is actuated and/or lowered onto a sensor apparatus of the sensor arrangement for pretreatment and/or before detection.