mhurhangee/patent-ind-claim-en huggingface dataset:
Helmet for protecting the head of a user, wherein said helmet comprises a cap and an internal cavity having an access zone and intended to accommodate the head of a user, wherein said cap has a front portion defining a front opening and a rear portion , wherein said helmet comprises a chin strap device comprising at least one belt structure , wherein the belt structure is fixed between side portions , or right side portion and left side portion, of the cap each comprised between the front portion and the rear portion and wherein said belt structure extends at least between said side portions and said zone for access to the internal cavity , and wherein a zone of a side portion of said side portions comprised between the belt structure and said front opening is a front side zone of the cap and a zone of said side portion comprised between the belt structure and said rear portion is a rear side zone of the cap, and wherein the helmet comprises at least one tie element extending along said front side zone , and wherein a first part of said at least one tie element is connected to the front side zone of the cap and a second part of said at least one tie element is connected to the belt structure , and characterized in that said at least one tie element is a first tie element and the helmet comprises at least one second tie element which extends along said rear side zone , and wherein a first part of said at least one second tie element is connected to the rear side zone of the cap and a second part of said at least a second tie element is connected to the belt structure . wherein said cap has a front portion defining a front opening and a rear portion , wherein said helmet comprises a chin strap device comprising at least one belt structure , wherein the belt structure is fixed between side portions , or right side portion and left side portion, of the cap each comprised between the front portion and the rear portion and wherein said belt structure extends at least between said side portions and said zone for access to the internal cavity , and wherein a zone of a side portion of said side portions comprised between the belt structure and said front opening is a front side zone of the cap and a zone of said side portion comprised between the belt structure and said rear portion is a rear side zone of the cap, and wherein the helmet comprises at least one tie element extending along said front side zone , and wherein a first part of said at least one tie element is connected to the front side zone of the cap and a second part of said at least one tie element is connected to the belt structure , and characterized in that said at least one tie element is a first tie element and the helmet comprises at least one second tie element which extends along said rear side zone , and wherein a first part of said at least one second tie element is connected to the rear side zone of the cap and a second part of said at least a second tie element is connected to the belt structure .
A clip applier configured to apply a surgical clip to tissue, the clip applier comprising: a first jaw member configured to engage a distal portion of a first leg member of the surgical clip; a second jaw member configured to engage a distal portion of a second leg member of the surgical clip; a stabilizing member comprising: a first longitudinal wall on the first jaw member, and a second longitudinal wall on the second jaw member, wherein the first and second longitudinal walls define a space therebetween configured to receive a proximal portion of the surgical clip and to reduce lateral movement of the surgical clip; a first longitudinal channel on the first jaw member configured to receive the second longitudinal wall when the first and second jaw members are in a closed configuration; and a second longitudinal channel on the second jaw member configured to receive the first longitudinal wall when the first and second jaw members are in the closed configuration. a first jaw member configured to engage a distal portion of a first leg member of the surgical clip; a second jaw member configured to engage a distal portion of a second leg member of the surgical clip; a stabilizing member comprising: a first longitudinal wall on the first jaw member, and a second longitudinal wall on the second jaw member, wherein the first and second longitudinal walls define a space therebetween configured to receive a proximal portion of the surgical clip and to reduce lateral movement of the surgical clip; a first longitudinal channel on the first jaw member configured to receive the second longitudinal wall when the first and second jaw members are in a closed configuration; and a second longitudinal channel on the second jaw member configured to receive the first longitudinal wall when the first and second jaw members are in the closed configuration. a first longitudinal wall on the first jaw member, and a second longitudinal wall on the second jaw member, wherein the first and second longitudinal walls define a space therebetween configured to receive a proximal portion of the surgical clip and to reduce lateral movement of the surgical clip; a first longitudinal channel on the first jaw member configured to receive the second longitudinal wall when the first and second jaw members are in a closed configuration; and a second longitudinal channel on the second jaw member configured to receive the first longitudinal wall when the first and second jaw members are in the closed configuration.
Method for heat-treating a component which consists of a metal alloy, in which or on which at least one surface section is coated with a glaze or enamel coating , - wherein the component with the glaze or enamel coating is heated to a heating temperature, which at least equals a minimum quenching temperature and lies above a baking temperature set when baking in the glaze or enamel coating, so that the glaze or enamel coating is softened when reaching the heating temperature, and - wherein the component is quenched starting from a temperature which at least equals the minimum quenching temperature, in order to produce a higher-strength microstructure in the component , characterised in that , the glaze or enamel coating is pre-cooled to a pre-cooling temperature at least on its free surface prior to quenching, said pre-cooling temperature maximally corresponding to the temperature at which the glaze or enamel coating begins to soften, so that the glaze or enamel coating is re-solidified by the pre-cooling to the pre-cooling temperature and adheres firmly to the metal substrate, and in that the cooling rate at which the glaze or enamel coating is pre-cooled, is lower than the cooling rate achieved during quenching. - wherein the component with the glaze or enamel coating is heated to a heating temperature, which at least equals a minimum quenching temperature and lies above a baking temperature set when baking in the glaze or enamel coating, so that the glaze or enamel coating is softened when reaching the heating temperature, and - wherein the component is quenched starting from a temperature which at least equals the minimum quenching temperature, in order to produce a higher-strength microstructure in the component , characterised in that , the glaze or enamel coating is pre-cooled to a pre-cooling temperature at least on its free surface prior to quenching, said pre-cooling temperature maximally corresponding to the temperature at which the glaze or enamel coating begins to soften, so that the glaze or enamel coating is re-solidified by the pre-cooling to the pre-cooling temperature and adheres firmly to the metal substrate, and in that the cooling rate at which the glaze or enamel coating is pre-cooled, is lower than the cooling rate achieved during quenching.
A method of making an electrostatic discharge protection semiconductor package, comprising: providing a first semiconductor die including a first protection circuit , wherein the first semiconductor die is a first discrete transient voltage suppression, TVS, diode with only two contact pads; disposing a second semiconductor die including a second protection circuit over the first semiconductor die with a first conductive via of the first semiconductor die aligned to a second conductive via of the second semiconductor die, wherein the second semiconductor die is a second discrete TVS diode with only two contact pads; providing an interconnect structure between the first conductive via and second conductive via; disposing the first semiconductor die and second semiconductor die over a leadframe with the first protection circuit and second protection circuit electrically coupled in parallel between a first terminal of the leadframe and a second terminal of the leadframe; and depositing an encapsulant over the first semiconductor die and the second semiconductor die with the first terminal and second terminal exposed from the encapsulant; wherein the electrostatic discharge protection semiconductor package is configured to protect a separate semiconductor package from electrostatic discharge events using both the first protection circuit and second protection circuit in parallel. providing a first semiconductor die including a first protection circuit , wherein the first semiconductor die is a first discrete transient voltage suppression, TVS, diode with only two contact pads; disposing a second semiconductor die including a second protection circuit over the first semiconductor die with a first conductive via of the first semiconductor die aligned to a second conductive via of the second semiconductor die, wherein the second semiconductor die is a second discrete TVS diode with only two contact pads; providing an interconnect structure between the first conductive via and second conductive via; disposing the first semiconductor die and second semiconductor die over a leadframe with the first protection circuit and second protection circuit electrically coupled in parallel between a first terminal of the leadframe and a second terminal of the leadframe; and depositing an encapsulant over the first semiconductor die and the second semiconductor die with the first terminal and second terminal exposed from the encapsulant; wherein the electrostatic discharge protection semiconductor package is configured to protect a separate semiconductor package from electrostatic discharge events using both the first protection circuit and second protection circuit in parallel.
A method comprising: receiving, by a wireless device , a downlink control information comprising: a power control command; a hybrid automatic repeat request process number; and a redundancy version; validating the downlink control information for an activation of a semi-persistent channel state information, CSI, reporting based on: a radio network temporary identifier of the semi-persistent CSI reporting; the hybrid automatic repeat request process number; and the redundancy version; activating the semi-persistent CSI reporting in response to the validation being achieved; and transmitting, for the semi-persistent CSI reporting, a semi-persistent CSI report with a transmission power determined based on the power control command. receiving, by a wireless device , a downlink control information comprising: a power control command; a hybrid automatic repeat request process number; and a redundancy version; a power control command; a hybrid automatic repeat request process number; and a redundancy version; validating the downlink control information for an activation of a semi-persistent channel state information, CSI, reporting based on: a radio network temporary identifier of the semi-persistent CSI reporting; the hybrid automatic repeat request process number; and the redundancy version; a radio network temporary identifier of the semi-persistent CSI reporting; the hybrid automatic repeat request process number; and the redundancy version; activating the semi-persistent CSI reporting in response to the validation being achieved; and transmitting, for the semi-persistent CSI reporting, a semi-persistent CSI report with a transmission power determined based on the power control command.
An assisting apparatus for bean roasting, characterized by comprising: a storage , being configured to store a historical roasting pattern set, wherein the historical roasting pattern set comprises a plurality of historical roasting patterns, each of the historical roasting patterns corresponds to a roasting level and a plurality of color attributes of a color space; an image capturing device , being configured to capture a scene in a chamber of a bean roasting device to generate an image ; a processor , electrically connected to the storage and the image capturing device , being configured to receive the image from the image capturing device , compare the image with the historical roasting pattern set based on the plurality of color attributes of the color space to determine the roasting level represented by the image , and generate a control signal; and a transceiver, electrically connected to the processor ; wherein the processor is further configured to receive a feedback signal from an external user equipment via the transceiver, and to update the historical roasting pattern set according to the feedback signal; and wherein the feedback signal comprises a new historical roasting pattern and a roasting level and a plurality of color attributes corresponding to the new historical roasting pattern. a storage , being configured to store a historical roasting pattern set, wherein the historical roasting pattern set comprises a plurality of historical roasting patterns, each of the historical roasting patterns corresponds to a roasting level and a plurality of color attributes of a color space; an image capturing device , being configured to capture a scene in a chamber of a bean roasting device to generate an image ; a processor , electrically connected to the storage and the image capturing device , being configured to receive the image from the image capturing device , compare the image with the historical roasting pattern set based on the plurality of color attributes of the color space to determine the roasting level represented by the image , and generate a control signal; and a transceiver, electrically connected to the processor ; wherein the processor is further configured to receive a feedback signal from an external user equipment via the transceiver, and to update the historical roasting pattern set according to the feedback signal; and wherein the feedback signal comprises a new historical roasting pattern and a roasting level and a plurality of color attributes corresponding to the new historical roasting pattern.
A tread block for a tread of a pneumatic tire or for a tread band for a pneumatic tire , the tread block being provided with sipes , at least some of the sipes having an open top end (TOP) to the surface of the tread block , a bottom located in the tread block , and a first side wall and a second side wall curved in the lengthwise direction of the sipe , wherein an intersection of the sipe with a surface that is geometrically congruent and parallel with the surface of the tread block and arranged a depth (d) apart from the surface of the tread block into the tread block forms a curved line , characterized in that at least a first sipe of the sipes is shaped in such a way, that at all depths (d) within a range from the open top (TOP) of the first sipe to a first transition depth (d1) of at least 0.3 mm, the curved line comprises at least one deflection point having an inner corner that has a radius of curvature under 0.3 mm, preferably under 0.25 mm, and more preferably from 0 to 0.2 mm; and that - the first sipe is shaped in such a way, that at all depths from a second transition depth (d2) to the bottom of the first sipe , the curved line comprises such a bending point that has an inner rounded corner , of which radius of curvature is at least 0.3 mm, preferably at least 0.5 mm; wherein the second transition depth (d2) is greater than the first transition depth (d1). - the first sipe is shaped in such a way, that at all depths from a second transition depth (d2) to the bottom of the first sipe , the curved line comprises such a bending point that has an inner rounded corner , of which radius of curvature is at least 0.3 mm, preferably at least 0.5 mm; wherein the second transition depth (d2) is greater than the first transition depth (d1).
A method for measuring life parameters during sleep by a device comprising an accelerometer attached to the body of a sleeping subject, the method comprising the steps of: a) setting a hysteresis width having a maximum hysteresis value and a minimum hysteresis value; b) reading , from the accelerometer , values of acceleration in three axes; c) filtering the values of acceleration in each of the three axes with a band-pass filter to obtain filtered acceleration signals; d) combining the filtered acceleration signals from each of the three axes to obtain a signal level; e) checking whether the signal level is higher than the current maximum hysteresis value and if so, setting the maximum hysteresis value to the signal level and setting the minimum hysteresis value to the maximum hysteresis value decreased by the hysteresis width; and f) signaling a breath detection when a transition from a falling edge to a rising edge is detected on the signal level . a) setting a hysteresis width having a maximum hysteresis value and a minimum hysteresis value; b) reading , from the accelerometer , values of acceleration in three axes; c) filtering the values of acceleration in each of the three axes with a band-pass filter to obtain filtered acceleration signals; d) combining the filtered acceleration signals from each of the three axes to obtain a signal level; e) checking whether the signal level is higher than the current maximum hysteresis value and if so, setting the maximum hysteresis value to the signal level and setting the minimum hysteresis value to the maximum hysteresis value decreased by the hysteresis width; and f) signaling a breath detection when a transition from a falling edge to a rising edge is detected on the signal level .
Motor assembly for an electric bicycle, comprising: a case ; a drive shaft designed to support integrally at least one front bicycle sprocket ; a main electric motor comprising a stator and a rotor kinematically connected to said drive shaft ; and a gear change actuator designed to operate a control cable which can be associated with a rear bicycle derailleur; the drive shaft , the main electric motor and the gear change actuator being housed in or supported by said case ; characterized in that said gear change actuator comprises at least one release point accessible from outside the case so as to allow emergency operation by the user in the event of a malfunction.
Sower element for a seeder, comprising an opener disc and a furrow closer , said opener disc splitting the soil and tracing a furrow and said furrow closer expanding and maintaining the opening of said furrow, said furrow closer having a blade for forming a furrow and an element for distributing seeds, said disc having a solid surface , called interior disc, being extended by a peripheral crown carrying a series of asymmetrical teeth , having an inlet edge , first portion of the tooth to come into contact with the earth, and an outlet edge , last portion of the tooth to exit the earth, the angle (α) formed between a first straight line (D1) defined by said inlet edge and a tangent (T1) to the perimeter of said interior disc at the intersection point with said first straight line (D1) being less than 20°, said perimeter of the interior disc being defined by a circle passing through the lower portion of said teeth , said furrow closer extending substantially vertically to the rear of the axis of rotation of the opener disc , the base of said element for distributing seeds flush with the perimeter of said interior disc.
A conveyance mechanism , comprising: a conveyance passage which is a passage where a conveyance object (C) is conveyed; a conveyance member which moves the conveyance object (C) along the conveyance passage ; a motor which drives the conveyance member ; a control part which controls an output torque of the motor ; a conveyance state identifying means (D) which identifies a conveyance state (S) that is a position and/or a conveyance direction of the conveyance object (C) in the conveyance passage ; and a storage part , the conveyance mechanism being characterized in that : upper limit torque information which is an upper limit value of an output torque allowable for the motor or a parameter value required for calculation of the upper limit value is registered for each type of the conveyance state (S) in the storage part , and the control part acquires the upper limit torque information corresponding to the conveyance state (S) from the storage part based on the conveyance state (S) identified by the conveyance state identifying means (D) and dynamically switches the upper limit value of the output torque allowable for the motor . a conveyance passage which is a passage where a conveyance object (C) is conveyed; a conveyance member which moves the conveyance object (C) along the conveyance passage ; a motor which drives the conveyance member ; a control part which controls an output torque of the motor ; a conveyance state identifying means (D) which identifies a conveyance state (S) that is a position and/or a conveyance direction of the conveyance object (C) in the conveyance passage ; and a storage part , the conveyance mechanism being characterized in that : upper limit torque information which is an upper limit value of an output torque allowable for the motor or a parameter value required for calculation of the upper limit value is registered for each type of the conveyance state (S) in the storage part , and the control part acquires the upper limit torque information corresponding to the conveyance state (S) from the storage part based on the conveyance state (S) identified by the conveyance state identifying means (D) and dynamically switches the upper limit value of the output torque allowable for the motor . upper limit torque information which is an upper limit value of an output torque allowable for the motor or a parameter value required for calculation of the upper limit value is registered for each type of the conveyance state (S) in the storage part , and the control part acquires the upper limit torque information corresponding to the conveyance state (S) from the storage part based on the conveyance state (S) identified by the conveyance state identifying means (D) and dynamically switches the upper limit value of the output torque allowable for the motor .