mhurhangee/patent-ind-claim-en huggingface dataset:
A valve housing for use in an apparatus for measuring inspiratory and expiratory lung pressure, the valve housing comprising a first body portion which defines a mouthpiece; a second body portion coupled to the first body portion and which defines a port; a pair of spaced apart valve support bodies defined by one of the first and second body portions, wherein each valve support body defines an air flow conduit that includes a support frame disposed within the conduit, the support frame having a first side and a second side; and a pair of valves, wherein the valves are selectively secured to the respective first sides of the support frame or are secured to the respective second sides of the support frame, wherein when the valves are secured to the first sides of the support frame, they open to permit air to exit the valve housing via the air flow conduits, but close to prevent air being drawn into the valve housing from the external environment; and when the valves are secured to the second sides of the support frame, they open to permit air to enter into the valve housing via the air flow conduits from an external environment, but close to prevent air within the housing from exiting the housing, characterised in that the valve housing further comprises a filter medium disposed between the first and second body portions.
A frame for spectacles comprising a front mount having respective lateral lugs which are provided for the articulation of respective arms for the purpose of producing the articulated connection of each arm to the front mount , characterized in that each lug comprises a first lug portion which extends into a second lug portion which is folded on the first portion in a position facing the first portion, the second portion comprising a first through-opening which is laterally delimited by a pair of opposing wings which are spaced apart from each other, the wings being connected at the free end of the second lug portion by a cross-member , an extension piece which extends from the cross-member inside the opening and in the direction of the first lug portion , in that each arm comprises, in the region of the free end thereof directed towards the corresponding lug, an arm portion which is extended into an end head , a second opening being formed so as to extend through the arm portion in the region of a connection zone between the arm portion and the end head of the arm, in that the arm portion is received with limited transverse connection play between the wings and the extension piece is engaged with limited connection play in the second opening so that, during the movement between respective opening and closure positions of the arm on the frame, the arm portion can be moved away from and towards those positions, in a manner guided and in abutment transversely between the opposing wings of the second lug portion , and the extension piece is slidingly guided inside the second opening , in order to bring about a hinge movement between the lug and the arm , and in that , during the connection of each arm to the corresponding lug , the end head of an arm is interposed between the cross-member and the first lug portion so that, as a result of the mutual movement apart of the first lug portion and second lug portion owing to the movement of the head during the rotation movement of the arm , there is generated a resilient return urging action of the second lug portion towards the first lug portion .
A method of guiding melanoma patient treatment with immunotherapy drugs, comprising: a) conducting mass spectrometry on a blood-based sample of the patient and obtaining mass spectrometry data; (b) obtaining integrated intensity values in the mass spectrometry data of a multitude of mass-spectral features; and (c) operating on the mass spectral data with a programmed computer implementing a classifier, wherein the classifier is obtained from filtered mini-classifiers combined using a regularized combination method comprising repeatedly conducting logistic regression with extreme dropout on the filtered mini-classifiers; wherein in the operating step the classifier compares the integrated intensity values with feature values of a reference set of class-labeled mass spectral data obtained from blood-based samples obtained from a multitude of other melanoma patients treated with an antibody drug blocking ligand activation of programmed cell death 1 (PD-1) with a classification algorithm and generates a class label for the sample, wherein the class label "Good" or the equivalent predicts the patient is likely to obtain similar benefit from a combination therapy comprising an antibody drug blocking ligand activation of PD-1 and an antibody drug targeting CTLA4 and is therefore guided to a monotherapy of an antibody drug blocking ligand activation of PD-1, whereas a class label of "Not Good" or the equivalent indicates the patient is likely to obtain greater benefit from the combination therapy as compared to the monotherapy of an antibody drug blocking ligand activation of programmed cell death 1 (PD-1) and is therefore guided to the combination therapy, wherein the mass spectral features include a multitude of features listed in Appendix A, Appendix B or Appendix C. a) conducting mass spectrometry on a blood-based sample of the patient and obtaining mass spectrometry data; (b) obtaining integrated intensity values in the mass spectrometry data of a multitude of mass-spectral features; and (c) operating on the mass spectral data with a programmed computer implementing a classifier, wherein the classifier is obtained from filtered mini-classifiers combined using a regularized combination method comprising repeatedly conducting logistic regression with extreme dropout on the filtered mini-classifiers;
Method for producing a first part mould for a metal machining tool , in which for producing the first part mould a basic body made of plastic is provided, wherein a surface of the basic body is divided into several regions , wherein at at least one region of the surface of the basic body is arranged at least one casting mould , characterised in that the at least one casting mould and the at least one region of the surface enclose at least one hollow space which forms a negative mould for a layer of plastic which is to be applied on the at least one region , wherein plastic is filled into the at least one hollow space and is hardened, wherein the plastic is connected with the surface of the basic body at the at least one region and applied thereon to form the layer , wherein the first part mould is in the form of a blank holder.
A User Equipment, UE, (102; 1102) configured to configure uplink and downlink, UL-DL, configurations in a cell, comprising: a processor configured to and/or programmed to: determine a default Time Domain Duplexing, TDD, UL-DL configuration for the cell; determine whether dynamic UL-DL reconfiguration is configured for the cell based on a higher layer signaling; determine a first reference UL-DL configuration and a second reference UL-DL configuration with regard to the dynamic UL-DL reconfiguration in the cell, the second reference UL-DL configuration being determined based on a System Information Block type 1, SIB1; and a receiver configured to and/or programmed to receive a physical layer signaling for the dynamic UL-DL reconfiguration in the cell to convert subframes over the default TDD UL-DL configuration; wherein the processor is configured to and/or programmed to: determine timing for hybrid automatic repeat request acknowledgement, HARQ-ACK, information corresponding to a Physical Downlink Shared Channel, PDSCH, in the cell based on the first reference configuration; and determine timing for HARQ-ACK information corresponding to a Physical Uplink Shared Channel, PUSCH, in the cell based on the second reference UL-DL configuration. determine a default Time Domain Duplexing, TDD, UL-DL configuration for the cell; determine whether dynamic UL-DL reconfiguration is configured for the cell based on a higher layer signaling; determine a first reference UL-DL configuration and a second reference UL-DL configuration with regard to the dynamic UL-DL reconfiguration in the cell, the second reference UL-DL configuration being determined based on a System Information Block type 1, SIB1; and a receiver configured to and/or programmed to receive a physical layer signaling for the dynamic UL-DL reconfiguration in the cell to convert subframes over the default TDD UL-DL configuration; wherein the processor is configured to and/or programmed to: determine timing for hybrid automatic repeat request acknowledgement, HARQ-ACK, information corresponding to a Physical Downlink Shared Channel, PDSCH, in the cell based on the first reference configuration; and determine timing for HARQ-ACK information corresponding to a Physical Uplink Shared Channel, PUSCH, in the cell based on the second reference UL-DL configuration.
Ballistocardiography device , characterised in that it comprises: - a non-homogeneous anisotropic support having a portion forming a stress or deformation guide and a portion transmitting fewer stresses or deformations in the frequency range between 0.05 Hz and 25 Hz, the stress or deformation guide covers the support at least partially; and - at least one sensor of a signal representing at least one movement and/or variation of quasi-static stress of the guide in the frequency range between 0.05 Hz and 25 Hz, positioned facing the stress or deformation guide, wherein the stress or deformation guide, referred to as "surfacic", is an element for which one dimension is at least ten times less than two other dimensions in an orthonormal reference space. - a non-homogeneous anisotropic support having a portion forming a stress or deformation guide and a portion transmitting fewer stresses or deformations in the frequency range between 0.05 Hz and 25 Hz, the stress or deformation guide covers the support at least partially; and - at least one sensor of a signal representing at least one movement and/or variation of quasi-static stress of the guide in the frequency range between 0.05 Hz and 25 Hz, positioned facing the stress or deformation guide,
Method for controlling a compressed air generation system (S) of an automotive vehicle (V), the system comprising at least one compressor and a first compressed air tank , wherein the method includes steps of: a) in a braking and/or coasting mode of the vehicle, compressing air to a pressure higher than a nominal pressure of the first compressed air tank , b) storing air compressed at step a) in a high pressure compressed air tank of the compressed air generation system (S), c) in a power mode of the vehicle, expanding at least a portion of the air of the high pressure compressed air tank in a pneumatic motor for generating torque. a) in a braking and/or coasting mode of the vehicle, compressing air to a pressure higher than a nominal pressure of the first compressed air tank , b) storing air compressed at step a) in a high pressure compressed air tank of the compressed air generation system (S), c) in a power mode of the vehicle, expanding at least a portion of the air of the high pressure compressed air tank in a pneumatic motor for generating torque.
A method for requesting access to a physical space secured by a lock , the method being performed in a mobile device of a user , an authentication server and an access control device , and comprising the steps of: authenticating the mobile device with the authentication server , resulting in a token , being a data item, indicating one or more access groups (20a-b) to which the user belongs, and comprising a validity time of the token, wherein the token is cryptographically signed by the authentication server ; storing the token in the mobile device ; obtaining , by the mobile device , a lock identifier of the lock ; and transmitting , by the mobile device , an access request to the access control device , the access request comprising the token and the lock identifier ; verifying, by the access control device , that the token is validly signed by the authentication server ; checking, by the access control device , the validity time of the token to ensure that the validity time has not expired; extracting, by the access control device , said one or more access groups (20a-b) from the token ; obtaining, by the access control device , a mapping between said one or more access groups (20a-b) and one or more lock identifiers , and if the lock identifier of the access request is mapped to said one or more access groups (20a-b), access is granted and: sending, from the access control device , an unlock command to the lock . authenticating the mobile device with the authentication server , resulting in a token , being a data item, indicating one or more access groups (20a-b) to which the user belongs, and comprising a validity time of the token, wherein the token is cryptographically signed by the authentication server ; storing the token in the mobile device ; obtaining , by the mobile device , a lock identifier of the lock ; and transmitting , by the mobile device , an access request to the access control device , the access request comprising the token and the lock identifier ; verifying, by the access control device , that the token is validly signed by the authentication server ; checking, by the access control device , the validity time of the token to ensure that the validity time has not expired; extracting, by the access control device , said one or more access groups (20a-b) from the token ; obtaining, by the access control device , a mapping between said one or more access groups (20a-b) and one or more lock identifiers , and if the lock identifier of the access request is mapped to said one or more access groups (20a-b), access is granted and: sending, from the access control device , an unlock command to the lock .
A memory cell, comprising: a second electrode spaced from a first electrode; an ion source region proximate the first electrode; a stack of alternating ion buffer layers and dielectric layers between the ion source region and the second electrode; the stack comprising switching regions with each switching region corresponding to one of the ion buffer layers paired with an adjacent one of the dielectric layers; wherein a first of the ion buffer layers is closer to the ion source region than a second of the ion buffer layers; wherein the first and second ion buffer layers comprise CuZrAlTeO, where the chemical formula lists primary constituents rather than designating a specific stoichiometry; wherein the first ion buffer layer has a first tellurium concentration and a first aluminum concentration; wherein the second ion buffer layer has a second aluminum concentration and a second tellurium concentration; and wherein the second tellurium concentration is higher than the first tellurium concentration, and the second aluminum concentration is lower than the first aluminum concentration. a second electrode spaced from a first electrode; an ion source region proximate the first electrode; a stack of alternating ion buffer layers and dielectric layers between the ion source region and the second electrode; the stack comprising switching regions with each switching region corresponding to one of the ion buffer layers paired with an adjacent one of the dielectric layers; wherein a first of the ion buffer layers is closer to the ion source region than a second of the ion buffer layers; wherein the first and second ion buffer layers comprise CuZrAlTeO, where the chemical formula lists primary constituents rather than designating a specific stoichiometry; wherein the first ion buffer layer has a first tellurium concentration and a first aluminum concentration; wherein the second ion buffer layer has a second aluminum concentration and a second tellurium concentration; and wherein the second tellurium concentration is higher than the first tellurium concentration, and the second aluminum concentration is lower than the first aluminum concentration.
Method for applying spraying agents , in particular plant protection agents and/or fertilizers, comprising the steps of: a) applying the spraying agent onto an agricultural area (N) and/or its plant population (P) by means of an agricultural sprayer which has at least one adjusted setting parameter; b) wetting at least one surface (P1) with the spraying agent ; c) detecting the at least one wetted surface (P1) by means of at least one detection device associated with the sprayer ; d) determining an actual wetting quality on the basis of the at least one detected surface (P1); e) determining at least one deviation of the actual wetting quality from a retrievable and/or predefinable target wetting quality; characterized by the following steps: f) adjusting the at least one setting parameter on the basis of the at least one deviation; wherein data are transmitted at least partially wirelessly, in particular via radio, between the at least one detection device and the sprayer , in particular a control and/or regulating system , in order to adjust the at least one setting parameter, g) detecting the at least one wetted surface (P1) by the at least one detection device being carried by an operator (B) along the agricultural area (N) and/or the plant population (P). a) applying the spraying agent onto an agricultural area (N) and/or its plant population (P) by means of an agricultural sprayer which has at least one adjusted setting parameter; b) wetting at least one surface (P1) with the spraying agent ; c) detecting the at least one wetted surface (P1) by means of at least one detection device associated with the sprayer ; d) determining an actual wetting quality on the basis of the at least one detected surface (P1); e) determining at least one deviation of the actual wetting quality from a retrievable and/or predefinable target wetting quality; f) adjusting the at least one setting parameter on the basis of the at least one deviation; wherein data are transmitted at least partially wirelessly, in particular via radio, between the at least one detection device and the sprayer , in particular a control and/or regulating system , in order to adjust the at least one setting parameter, g) detecting the at least one wetted surface (P1) by the at least one detection device being carried by an operator (B) along the agricultural area (N) and/or the plant population (P).
A hard surface cleaning composition comprising: • 5 to 60 wt% of detergent surfactant, • 0.5 to 4 wt% of a polymer comprising acrylic acid, the polymer comprising a homopolymer of acrylic acid; and • water; wherein the composition comprises not more than 1.5 wt% of silicone and comprises not more than 0.05 wt% of metal bleach catalyst; wherein the composition has pH of 5.5 or lower; and wherein at least 50% of the total amount of detergent surfactant is a combination of alkyl ether sulfate and alkylbenzene sulfonate wherein the ratio of alkyl ether sulfate:alkylbenzene sulfonate is at least 1:1. • 5 to 60 wt% of detergent surfactant, • 0.5 to 4 wt% of a polymer comprising acrylic acid, the polymer comprising a homopolymer of acrylic acid; and • water;
A method of performing a multi-layer transmission (302; 306) from a transmitting station (100; 1900) to a receiving station (200; 2000) on a radio frequency, the multi-layer transmission (302; 306) comprising multiple layers having different robustnesses on the radio frequency, the method comprising : transmitting first data of a first hybrid automatic repeat request, HARQ, process on a first layer of the multi-layer transmission (302; 306) simultaneously with second data of a second HARQ process on a second layer of the multi-layer transmission (302; 306); and receiving a feedback message from the receiving station (200; 2000) in response to the transmission ; wherein the feedback message is indicative of a signal to noise ratio, SNR, or a signal to interference and noise ratio, SINR, the method further comprising: assigning a first portion of a mutual information between the transmitting station (100; 1900) and the receiving station (200; 2000) to the first layer and/or assigning a second portion of the mutual information to the second layer , wherein the portions of the mutual information are estimated based on the indicated SNR or SINR to correspond to the amount of information that is missing to successfully decode at least one or each of the first data and the second data . transmitting first data of a first hybrid automatic repeat request, HARQ, process on a first layer of the multi-layer transmission (302; 306) simultaneously with second data of a second HARQ process on a second layer of the multi-layer transmission (302; 306); and receiving a feedback message from the receiving station (200; 2000) in response to the transmission ; wherein the feedback message is indicative of a signal to noise ratio, SNR, or a signal to interference and noise ratio, SINR, the method further comprising: assigning a first portion of a mutual information between the transmitting station (100; 1900) and the receiving station (200; 2000) to the first layer and/or assigning a second portion of the mutual information to the second layer , wherein the portions of the mutual information are estimated based on the indicated SNR or SINR to correspond to the amount of information that is missing to successfully decode at least one or each of the first data and the second data .
A printing control device comprising: a determination section configured to determine whether an elapsed time, which constitutes a time which elapses with no subsequent board being conveyed in since a point in time when a mask and a board , on which a printer (WM1), configured to execute a printing process of printing a solder on a board through an opening portion in the mask by a squeegee sliding on the mask, executes the printing process, are separated to convey out the board, exceeds a predetermined allowable time; a first printing control section configured to cause the printer to execute the printing process for a first time on at least a first board which is conveyed in since the determination is made when the determination section determines that the elapsed time exceeds the allowable time; a movement controller configured to separate the mask and the board from each other after the first printing control section executes the printing process for the first time and bring the mask and the board into abutment with each other again after the separation; and a second printing control section configured to cause the printer to execute the printing process for a second time on the board after the movement controller brings the mask and the board into abutment with each other again. a determination section configured to determine whether an elapsed time, which constitutes a time which elapses with no subsequent board being conveyed in since a point in time when a mask and a board , on which a printer (WM1), configured to execute a printing process of printing a solder on a board through an opening portion in the mask by a squeegee sliding on the mask, executes the printing process, are separated to convey out the board, exceeds a predetermined allowable time; a first printing control section configured to cause the printer to execute the printing process for a first time on at least a first board which is conveyed in since the determination is made when the determination section determines that the elapsed time exceeds the allowable time; a movement controller configured to separate the mask and the board from each other after the first printing control section executes the printing process for the first time and bring the mask and the board into abutment with each other again after the separation; and a second printing control section configured to cause the printer to execute the printing process for a second time on the board after the movement controller brings the mask and the board into abutment with each other again.