mhurhangee/ep-ind-claims huggingface dataset:
A clock generator comprising: a signal input, configured to receive a high-frequency clock signal (HFCK); a variable-modulus frequency divider, coupled to the signal input and having a control input and an output, the control input of the variable-modulus frequency divider being configured to receive a modulus-control signal and the output of the variable-modulus frequency divider being configured to supply a divided clock signal having a jitter; a temperature-compensation circuit, configured to generate the modulus-control signal and a quantization-error signal (SUM/QE); and a jitter filter, coupled to the variable-modulus frequency divider and to the temperature-compensation circuit, the jitter filter being configured to receive the divided clock signal and the quantization-error signal (SUM/QE) and to generate a compensated clock signal having switching edges that are delayed, with respect to the divided clock signal, by a time correlated to the quantization-error signal (SUM/QE), wherein the jitter filter comprises a delay generator (37; 50; 80), configured to receive the divided clock signal and to generate a plurality of delayed clock signals (Φ,..., Φ[i],..., Φ[k]), having each the frequency of the divided clock signal and a different delay with respect to the divided clock signal, and a selection circuit (38; 81) configured to receive the plurality of delayed clock signals and the quantization-error signal (SUM/QE) and to periodically select one of the delayed clock signals. a signal input, configured to receive a high-frequency clock signal (HFCK); a variable-modulus frequency divider, coupled to the signal input and having a control input and an output, the control input of the variable-modulus frequency divider being configured to receive a modulus-control signal and the output of the variable-modulus frequency divider being configured to supply a divided clock signal having a jitter; a temperature-compensation circuit, configured to generate the modulus-control signal and a quantization-error signal (SUM/QE); and a jitter filter, coupled to the variable-modulus frequency divider and to the temperature-compensation circuit, the jitter filter being configured to receive the divided clock signal and the quantization-error signal (SUM/QE) and to generate a compensated clock signal having switching edges that are delayed, with respect to the divided clock signal, by a time correlated to the quantization-error signal (SUM/QE), wherein the jitter filter comprises a delay generator (37; 50; 80), configured to receive the divided clock signal and to generate a plurality of delayed clock signals (Φ,..., Φ[i],..., Φ[k]), having each the frequency of the divided clock signal and a different delay with respect to the divided clock signal, and a selection circuit (38; 81) configured to receive the plurality of delayed clock signals and the quantization-error signal (SUM/QE) and to periodically select one of the delayed clock signals.
Mounting bracket for mounting a guiding rail for an architectural covering, such as a roller blind or screen, to a support surface, the bracket configured to be able to connect to the guiding rail in a final mounting position and in a temporary position, different from the final mounting position, which assists accurate positioning of the mounting bracket on the support surface; wherein the bracket includes a body part having a main body defining a mounting hole for mounting the mounting bracket to the support surface and opposite parallel first and second snap flanges (23, 25) configured to engage respective first and second detent portions (115, 117) of a pair of parallel first and second mounting legs (107, 109) of a guiding rail when the guiding rail is in the final mounting position; and a clip part configured to engage the body part and having at least one resilient tongue (39, 41, 43, 45) and at least one resilient arm (79, 81, 83, 85) extending therefrom wherein, with the clip part engaged with the body part, the at least one resilient tongue (39, 41, 43, 45) and at least one resilient arm (79, 81, 83, 85) extend in alignment with the first and second snap flanges (23, 25) and are configured to temporarily clamp one of the first and second mounting legs (107, 109) of the guiding rail therebetween when the guiding rail is in the temporary position; wherein the mounting bracket is configured to be held in the temporary position by friction provoked by the resiliency of the flexible tongue(s) (39, 41, 43, 45) and arm(s) (79, 81, 83, 85) helped by the relevant first and second detent portions (115, 117). wherein the bracket includes a body part having a main body defining a mounting hole for mounting the mounting bracket to the support surface and opposite parallel first and second snap flanges (23, 25) configured to engage respective first and second detent portions (115, 117) of a pair of parallel first and second mounting legs (107, 109) of a guiding rail when the guiding rail is in the final mounting position; and a clip part configured to engage the body part and having at least one resilient tongue (39, 41, 43, 45) and at least one resilient arm (79, 81, 83, 85) extending therefrom wherein, with the clip part engaged with the body part, the at least one resilient tongue (39, 41, 43, 45) and at least one resilient arm (79, 81, 83, 85) extend in alignment with the first and second snap flanges (23, 25) and are configured to temporarily clamp one of the first and second mounting legs (107, 109) of the guiding rail therebetween when the guiding rail is in the temporary position;
In vitro method for predicting the risk of developing a cancer disease as well as the progression of the cancer disease characterized in that one or more gene modifications are sought in the promoter region of the CHK2 gene on human chromosome 22q12.1 in a patient sample and the gene modification is selected from the polymorphism -7161G>A, the polymorphism -7235C>G, the polymorphism -10532G>A, and the polymorphism -10649-(-10621)del29; wherein at least one of the polymorphisms -7161G>A and/or -7235C>G and/or -10532G>A is used to predict the risk of disease and/or the disease progression for colorectal carcinoma; and/or at least the polymorphism -7235C>G is used to predict the risk of disease and/or the disease progression for Chronic Lymphocytic Leukaemia; and/or at least one of the polymorphisms -7161G>A and/or -10532G>A is used to predict the risk of disease and/or the disease progression for a glioblastoma; and/or at least one of the polymorphisms - 7235C>G and/or -10649-(-10621)del29 is used to predict the disease progression of a glioblastoma; and/or at least the polymorphism -10649-(-10621)del29 is used to predict the disease risk and/or the disease progression of a breast cancer; and/or at least the polymorphism -7235C>G is used to predict the disease progression for a laryngeal carcinoma; and/or at least one of the polymorphisms -7161G>A and/or -7235C>G and/or-10532G>A is used to predict the disease progression for a renal cell carcinoma of stage 3 and/or 4; and/or at least one of the polymorphisms -7161G>A and/or -10532G>A is used to predict the disease progression for a prostate cancer.
A variant of mannanase having mannanase activity, said variant comprising at least two substitutions of an amino acid at positions corresponding to the position 123, 158, 180, 272, 307, or 316 wherein the variant has mannanase activity and is selected from the group consisting of 1) a polypeptide having at least 85% sequence identity to residues 27-331 of SEQ ID NO: 2; 2) a variant encoded by a polynucleotide that hybridizes under high stringency conditions with a) nucleotides 79 - 993 of SEQ ID NO: 1 b) the full-length complement of a); and 3) a variant encoded by a polynucleotide having at least 95% sequence identity to the SEQ ID NO: 1 or the genomic DNA sequence thereof; and wherein the amino acid numbering corresponds to the amino acid numbering of SEQ ID NO: 2 full length amino acid sequence containing a signal sequence. 1) a polypeptide having at least 85% sequence identity to residues 27-331 of SEQ ID NO: 2; 2) a variant encoded by a polynucleotide that hybridizes under high stringency conditions with a) nucleotides 79 - 993 of SEQ ID NO: 1 b) the full-length complement of a); and a) nucleotides 79 - 993 of SEQ ID NO: 1 b) the full-length complement of a); and 3) a variant encoded by a polynucleotide having at least 95% sequence identity to the SEQ ID NO: 1 or the genomic DNA sequence thereof;
An interface comprising: a mask, headgear, characterized in that the interface further comprises: a connection between said mask and said headgear comprising an elastic elongate element and a substantially inelastic elongate element arranged in parallel; and an adjustment mechanism operable to alter or adjust the length of the inelastic elongate element of the connection; wherein the elastic elongate element is configured to retain the mask on a face of a user and the headgear on the head of the user during fitting said mask to the user and the substantially inelastic elongate element is configured to reduce stretching of the connection during treatment after the length of the inelastic elongate element has been adjusted. a mask, headgear, characterized in that the interface further comprises: a connection between said mask and said headgear comprising an elastic elongate element and a substantially inelastic elongate element arranged in parallel; and an adjustment mechanism operable to alter or adjust the length of the inelastic elongate element of the connection; wherein the elastic elongate element is configured to retain the mask on a face of a user and the headgear on the head of the user during fitting said mask to the user and the substantially inelastic elongate element is configured to reduce stretching of the connection during treatment after the length of the inelastic elongate element has been adjusted. a connection between said mask and said headgear comprising an elastic elongate element and a substantially inelastic elongate element arranged in parallel; and an adjustment mechanism operable to alter or adjust the length of the inelastic elongate element of the connection; wherein the elastic elongate element is configured to retain the mask on a face of a user and the headgear on the head of the user during fitting said mask to the user and the substantially inelastic elongate element is configured to reduce stretching of the connection during treatment after the length of the inelastic elongate element has been adjusted.
A jaw crusher having a stationary crusher jaw and having a movable crusher jaw, between which a crushing chamber and a crushing gap are formed, wherein the movable crusher jaw can be driven by a crusher drive to generate a crushing motion, wherein an overload protection mechanism is assigned to one of the crusher jaws (21, 22), preferably to the movable crusher jaw, wherein the overload protection mechanism comprises a control unit, which, in the event of an overload, causes the crusher jaws (21, 22) to move relative to one another in such a way that the crushing gap is enlarged, characterized in that an actuator unit is driven by means of the kinetic energy of a driven component of the jaw crusher, in particular of at least one flywheel of a crusher drive, of the movable crusher jaw and/or of the crusher drive driving the movable crusher jaw, in that at least one actuator is acted upon by the actuator unit using a transfer medium to effect the gap adjustment, in that the movable crusher jaw is coupled to a drive shaft of the crusher drive for rotation, in that the drive shaft has a deflector element, in particular an eccentric or a cam disk, and in that an actuation element of the actuator unit interacts with the deflector element to drive the actuator unit. wherein the movable crusher jaw can be driven by a crusher drive to generate a crushing motion, wherein an overload protection mechanism is assigned to one of the crusher jaws (21, 22), preferably to the movable crusher jaw, wherein the overload protection mechanism comprises a control unit, which, in the event of an overload, causes the crusher jaws (21, 22) to move relative to one another in such a way that the crushing gap is enlarged, characterized in that an actuator unit is driven by means of the kinetic energy of a driven component of the jaw crusher, in particular of at least one flywheel of a crusher drive, of the movable crusher jaw and/or of the crusher drive driving the movable crusher jaw, in that at least one actuator is acted upon by the actuator unit using a transfer medium to effect the gap adjustment, in that the movable crusher jaw is coupled to a drive shaft of the crusher drive for rotation, in that the drive shaft has a deflector element, in particular an eccentric or a cam disk, and in that an actuation element of the actuator unit interacts with the deflector element to drive the actuator unit.
case hardening steel having a chemical composition consisting of C: 0.10 mass% to 0.35 mass%, Si: 0.01 mass% to 0.13 mass%, Mn: 0.30 mass% to 0.80 mass%, P: 0.02 mass% or less, S: 0.03 mass% or less, Al: 0.01 mass% to 0.045 mass%, Cr: 0.5 mass% to 3.0 mass%, B: 0.0005 mass% to 0.0040 mass%, Nb: 0.003 mass% to 0.080 mass%, N: 0.0080 mass% or less in a range satisfying following formulas and, Ti as an impurity: 0.005 mass% or less, optionally one or more of Cu: 0.5 mass% or less, Ni: 0.5 mass% or less, V: 0.1 mass% or less, and the balance being Fe and incidental impurities: 3.0 % Si + 9.2 % Cr + 10.3 % Mn ≥ 10.0 3.0 % Si + 1.0 % Mn < 1.0 where [%M] represents the content of element M (mass%). C: 0.10 mass% to 0.35 mass%, Si: 0.01 mass% to 0.13 mass%, Mn: 0.30 mass% to 0.80 mass%, P: 0.02 mass% or less, S: 0.03 mass% or less, Al: 0.01 mass% to 0.045 mass%, Cr: 0.5 mass% to 3.0 mass%, B: 0.0005 mass% to 0.0040 mass%, Nb: 0.003 mass% to 0.080 mass%, N: 0.0080 mass% or less Ti as an impurity: 0.005 mass% or less, Cu: 0.5 mass% or less, Ni: 0.5 mass% or less, V: 0.1 mass% or less,
An RFID tag for a product, the RFID tag comprising: a receiver configured to receive an input signal from a RFID reading device, comprising a synchronization impulse and a sequence of bits, and a transmitter configured to transmit an output signal to the RFID reading device, characterized in that: the receiver is configured to dispatch the input signal to a tag substrate comprising an input transmission line and a transmission line array allowing the input signal to be split from a main line into different transmission lines each comprising a connector or an absorber, the RFID tag further characterized in that it comprises an OR device configured to add up signals to form a certificate signal that represents the bits from a certificate in a time sequence, the signals being yielded from the synchronization impulse having travelled through the different transmission lines; and a XOR device processing the input signal from the input transmission line and the certificate signal from the transmission line array to yield the output signal, wherein absorbers and connectors are logical functions that respectively lead to a logical "0" and a logical "1" from said certificate. a receiver configured to receive an input signal from a RFID reading device, comprising a synchronization impulse and a sequence of bits, and a transmitter configured to transmit an output signal to the RFID reading device, characterized in that: the receiver is configured to dispatch the input signal to a tag substrate comprising an input transmission line and a transmission line array allowing the input signal to be split from a main line into different transmission lines each comprising a connector or an absorber, the RFID tag further characterized in that it comprises an OR device configured to add up signals to form a certificate signal that represents the bits from a certificate in a time sequence, the signals being yielded from the synchronization impulse having travelled through the different transmission lines; and the receiver is configured to dispatch the input signal to a tag substrate comprising an input transmission line and a transmission line array allowing the input signal to be split from a main line into different transmission lines each comprising a connector or an absorber, the RFID tag further characterized in that it comprises an OR device configured to add up signals to form a certificate signal that represents the bits from a certificate in a time sequence, the signals being yielded from the synchronization impulse having travelled through the different transmission lines; and a XOR device processing the input signal from the input transmission line and the certificate signal from the transmission line array to yield the output signal, wherein absorbers and connectors are logical functions that respectively lead to a logical "0" and a logical "1" from said certificate.
A skin care composition comprising: a dermatologically acceptable carrier; at least a first and a second interference pigment; wherein a ratio of the first to second interference pigment is in a range between 20:80 and 80:20; wherein a chroma of said composition over said range is less than 8.5; wherein a redness reduction index of said composition is less than -7.5; wherein the first interference pigment has a hue angle (h°) between 180°-224° and wherein the second interference pigment has a hue angle (h°) between 80°-95°, wherein said chroma and redness reduction index are determined according to the methods in the description. a dermatologically acceptable carrier; at least a first and a second interference pigment; wherein a ratio of the first to second interference pigment is in a range between 20:80 and 80:20; wherein a chroma of said composition over said range is less than 8.5; wherein a redness reduction index of said composition is less than -7.5; wherein the first interference pigment has a hue angle (h°) between 180°-224° and wherein the second interference pigment has a hue angle (h°) between 80°-95°, wherein said chroma and redness reduction index are determined according to the methods in the description.
A method for ultra-low latency communication in a wireless network, comprising: determining a transmission time interval, TTI, for an uplink control channel transmission within a subframe, wherein the TTI comprises of a number of symbols which are a subset of a plurality of symbols in the subframe, wherein a duration of the TTI comprises at least one of a symbol duration, a two-symbol duration, or a slot duration wherein the subframe comprises two slots; and transmitting uplink control data relating to hybrid automatic repeat request, HARQ, feedback as part of a HARQ process over the uplink control channel during the TTI within the subframe, wherein transmitting the uplink control data comprises transmitting acknowledgement/negative-acknowledgement, ACK/NACK, feedback by using one or more different cyclic shifts to indicate a value of the ACK/NACK feedback as being ACK or NACK. determining a transmission time interval, TTI, for an uplink control channel transmission within a subframe, wherein the TTI comprises of a number of symbols which are a subset of a plurality of symbols in the subframe, wherein a duration of the TTI comprises at least one of a symbol duration, a two-symbol duration, or a slot duration wherein the subframe comprises two slots; and transmitting uplink control data relating to hybrid automatic repeat request, HARQ, feedback as part of a HARQ process over the uplink control channel during the TTI within the subframe, wherein transmitting the uplink control data comprises transmitting acknowledgement/negative-acknowledgement, ACK/NACK, feedback by using one or more different cyclic shifts to indicate a value of the ACK/NACK feedback as being ACK or NACK.
A user equipment, UE, comprising: a user application (202, 204; 306; 404) configured to communicate with a service provider to access a service; a plurality of network-assisted authentication modules, each network-assisted authentication module corresponding to a different network-assisted authentication protocol,-wherein one or more of the plurality of network-assisted authentication modules are configured to perform a network-assisted authentication with the service provider to access the service; characterised by a single sign-on, SSO, subsystem (206; 308) configured to: perform a user-assisted authentication of a user of the UE such that the user-assisted authentication is separate from the network-assisted authentication, select a network-assisted authentication module of the plurality of network assisted authentication modules for performing the network-assisted authentication of the UE with the service provider, the network-assisted authentication module selected based on one or more policies, and bind the user-assisted authentication with the network-assisted authentication such that an assertion indicates that both an identity associated with the user and an identity associated with the UE were used in the user-assisted authentication and the network-assisted authentication, respectively. a user application (202, 204; 306; 404) configured to communicate with a service provider to access a service; a plurality of network-assisted authentication modules, each network-assisted authentication module corresponding to a different network-assisted authentication protocol,-wherein one or more of the plurality of network-assisted authentication modules are configured to perform a network-assisted authentication with the service provider to access the service; perform a user-assisted authentication of a user of the UE such that the user-assisted authentication is separate from the network-assisted authentication, select a network-assisted authentication module of the plurality of network assisted authentication modules for performing the network-assisted authentication of the UE with the service provider, the network-assisted authentication module selected based on one or more policies, and bind the user-assisted authentication with the network-assisted authentication such that an assertion indicates that both an identity associated with the user and an identity associated with the UE were used in the user-assisted authentication and the network-assisted authentication, respectively.
A dry-powder inhaler (100; 200) comprising: a body (110; 210) forming a dispersion chamber (111; 211); a dispenser orifice (131; 231) through which the user inhales; a loading opening (121; 220) that receives a capsule containing a dose of dry powder for inhaling; and capsule opening means (140; 265) for opening a capsule inserted into said loading opening and emptying said dose of powder into said dispersion chamber; said inhaler being characterized in that said body (110; 210), at least at one wall of said dispersion chamber, is made of a tinted transparent material that is adapted to filter UV rays, at least in part, and to make it possible to see the inside of the dispersion chamber while masking, at least in part, residues of powder that are stuck to said at least one wall of tinted transparent material.